I presume that the question you raised is intended for Professional level discussion. I am not a physicist. My first message was a general statement of my opinion that the use of mathematics by theoretical physicists has been only loosely connected to reality. It is true that the equations make excellent predictions. This is as it should be since they are modeled to fit the patterns observed in empirical evidence. It is the patterns that do the work of leading us to successful predictions.
Where I see theory and reality separate is in any attempt to invent indefinable properties and their units. It is through those invented units that the invented properties become solidified into the equations. Before this act is commited, the equations accurately represent empirical knowledge. After that act of inventing properties is begun, the equations veer away from empirical knowledge and become subservient, even captive, to theoretical ideas. If any added properties and their units of measurement cannot be defined in terms of the original empirical evidence, they are guesses.
I will end this message here. There were no comments made with regard to my first message. So, if this line of thought is not relevent to what you want to explore, then I will not pursue it. I have re-read your essay in order to better understand your viewpoint. Congratulations again on winning a prize and membership.
James
Member Ian Durham replied on Feb. 20, 2010 @ 01:06 GMT
James,
Thanks for sharing! I have some general thoughts that popped into my head while reading and may have more as I digest your ideas.
> The basic idea is that our only source of empirical knowledge is via photons that carry information about changes of distance with respect to time.
I disagree with you on this point since that seems to assume that our empirical knowledge of the universe is confined to those sensory perceptions that involve photons, but (ignoring how the signals get from our sensory organs to our brains), we can learn quite a bit from sound as well as touch (maybe even touch).
> All physical sense is made known by changes of velocity.
I disagree with this as well. Changes in the color of light, for example, don't (indeed can't) involve a change in velocity since the velocity of light (in a vacuum and in air, which is close enough to a vacuum) doesn't change.
Now, in general I'm not sure I would say that your approach strikes me as being all that radical. What you've done is argue for a new system of units that allows for greater physical insight. This is most certainly interesting though not all that radical. The use of "natural" units (in which things like c, h, and G are set equal to 1) is common and produces a number of fascinating insights. Others have come up with pretty unusual unit systems that have shown. There's a very interesting discussion from about 4 years ago over at the n-Category Café related to this. (Copy and paste this link: http://golem.ph.utexas.edu/category/2006/09/dimensional_anal
ysis.html).
So now that I've said that, it might be interesting to look at your system of units in greater detail since it does offer some interesting equivalences. I'll have to ponder it a bit more though.
Ian
report post as inappropriate
James Putnam replied on Feb. 20, 2010 @ 01:38 GMT
Thank you for your reply. Let me take this one point at a time. I need to understand why it is that you imply that sound and touch are not the result of the action of photons? If I misunderstand this point, then I fundamentally misunderstand.
"...I disagree with you on this point since that seems to assume that our empirical knowledge of the universe is confined to those sensory perceptions that involve photons, but (ignoring how the signals get from our sensory organs to our brains), we can learn quite a bit from sound as well as touch (maybe even touch). ..."
James
James
report post as inappropriate
Member Ian Durham replied on Feb. 20, 2010 @ 03:16 GMT
Sound, for instance, is just a pressure wave of air molecules that causes the eardrum to vibrate.
Unless, of course, by photonic you mean that all sensations are somehow traceable to electromagnetic interactions. I would still disagree with you on this, though, since there certainly are some that are traceable to gravitational interactions (e.g. seasickness, though I'm not sure which sense that officially falls under).
report post as inappropriate
James Putnam replied on Feb. 20, 2010 @ 04:09 GMT
"...Unless, of course, by photonic you mean that all sensations are somehow traceable to electromagnetic interactions. I would still disagree with you on this, though, since there certainly are some that are traceable to gravitational interactions..."
That is what I mean. Gravitational effects are included; but, I am not yet explaining gravity. I think I have done the necessary work to explain gravity; but, I would like to concentrate on the idea that particles of matter interact by photonic means. I am saying there is one single fundamental cause for all activity. I am also saying that the evidence for this singular cause is demonstrated in the effects. The effects are always detected as changes of velocity.
I discount theoretical ideas such as the existence of gravitons, or even Higg's particles. That is not necessary to prove at this point since gravitons and Higg's particles are not yet discovered. I am speaking about what is known now at the most fundamental level. I think that it is correct to say that all effects known are the result of the interaction of photons between particles of matter. The idea I put forth as to a possible nature of mass is the main point that I wish to make. I can go further with this idea.
Thank you very much for responding. I will move onto your second point if it is agreed that sound and touch are, strictly speaking, the result of photonic interactions between our particles and those of the instigator particles. I am not yet saying what I think the cause of gravity is. I have only suggested that mass be connected to empirical evidence as we know it.
If mass is introduced as a new undefined theoretical property, then, I think, that is something to be discussed further. Justification must be given. Lack of understanding is not sufficient reason for introducing a 'given'. That is what I think. Everything introduced should be securely anchored in empirically observed properties. I think those properties consist only of changes of distance with respect to time.
Please continue to respond with your critiscisms. I appreciate it. I am truly interested in uncovering truth even if it is not mine.
James
report post as inappropriate
James Putnam replied on Feb. 20, 2010 @ 05:12 GMT
I need to amend something I said. I should have made it clear that, so far, I am speaking only about atomic interactions and not nuclear.
James
report post as inappropriate
Member Ian Durham replied on Feb. 20, 2010 @ 14:34 GMT
James,
OK, you've sold me on sensory perceptions ultimately being photonic in nature (I'm still sketchy about things like seasickness, but we can ignore that for now). Personally, rather than changes in velocity, I would say they are due to changes in momentum and energy. I know that seems like it contradicts your point (since you don't want to assume a definition of mass just yet) but check out chapter 3 of Tom Moore's Six Ideas That Shaped Physics, Unit C: Conservation Laws Constrain Interactions. He proves that mass is needed in order for experimental results to be consistent.
Ian
report post as inappropriate
James Putnam replied on Feb. 20, 2010 @ 22:15 GMT
Dear Ian,
This is what I think: We only know about effects because that is what empirical evidence consists of. We do not know what cause is. It is our lack of understanding about the nature of cause that makes theories necessary. The theorist imagines what causes they think could be responsible for the effects they see. I say this because photons causes changes of velocity. We do not know why they do this, so, we imagine that they have properties that we interpret to be causes.
When I speak about our learning about the operation of the universe by observing patterns in changes of velocity, I mean that that is all we ever directly observe. I avoid inventing indefinable properties. I also avoid inventing causes. Names of convenience are fine to use. What is not helpful is to force our theoretical guesses about causes into empirically determined equations through the means of indefinable invented units.
There is no escaping the necessity for one unknowable fundamental cause. Saying that it is unknowable is not meant to suggest that we cannot identify it and name it. Unknowable is only intended to acknowledge that it is a given without explanation of its origin or ability to cause action. One miracle such as this is enough. Anymore givens are just taking us further away from recognizing that fundamental unity exists right from the start of the universe and this should be reflected in theoretical physics. Fundamental unity should be a part of physics theory right from its start.
I am attempting to make just two points at this time. One is that all empirical information is gathered in the form of patterns of changes of velocity of objects. The second is that I free mass from its artificial theoretical definition, I do not do away with it. It remains as the m in f=ma. All that has changed is that that simple equation has been returned to its empirical roots. The changes that follow because of this act affect almost all of physics theory.
I will not use my own theoretical work to demonstrate this by bringing those ideas here. This forum is not the proper place for me to expound on a new theory. So, I will instead see if I can write a few messages that stick to this idea of returning all physics equations to their empirical roots. I can touch on ideas such as energy and momentum.
James
report post as inappropriate
Member Ian Durham replied on Feb. 21, 2010 @ 00:51 GMT
James,
I will say that you'll have quite a job of convincing me to discard my definition of mass (not that it couldn't be done). The only self-consistent definition for mass I've ever seen is as the magnitude of the four-momentum vector which is the relativistic unification (in a manner of speaking) of energy and momentum.
So, in reality, I would go one step further than I did and say that sensory perception is entirely about changes in four-momentum rather than velocity. Again, see Moore's arguments.
Just to put an even bigger wrench in things, I should point out (as I did in my essay) that, as Feynman noted, we don't even really know what energy is. The problem is that it is indispensable.
Ian
report post as inappropriate
James putnam replied on Feb. 21, 2010 @ 01:31 GMT
Dear Ian,
That is a undergraduate textbook. I do not have it; however, I have formally studied physics and have many books. I was just trying to introduce a different way of deriving theoretical physics. It does not do away with any conservation laws. Theory must adhere to empirical evidence. What it does do is remove all of the, in my opinion, artificial theoretical guesses that are preventing us from achieving unity without having to add on more invented artificial theoretical guesses. Unity should not be an after thought that must be forced onto theory by introducing additional unverifiable properties. Anyway, I have thought a great deal about this and have completed a great deal of work demonstrating it. I think you have been extremely polite to me. I appreciate your interest. Maybe this isn't something to pursue here. It definitely does not embrace the approach to physics the that book teaches.
James
report post as inappropriate
Member Ian Durham replied on Feb. 21, 2010 @ 04:31 GMT
James,
I hope I didn't offend you by suggesting Moore's book. I suggest Moore's book to a lot of people since, beyond being an introductory text, it espouses (without realizing it) an entire philosophy of physics. It is one of the deepest, most carefully thought-out books I have ever read, bar none. I personally think absolutely everyone with an interest in physics should read it regardless of whether they are new to physics or have won a Nobel Prize.
As for carrying on here, why not? I think this is the best place for it! Believe me, I've had some pretty far out ideas in my day and if they can't be talked about here then they can't be talked about anywhere.
Ian
report post as inappropriate
James Putnam replied on Feb. 21, 2010 @ 15:04 GMT
Dear Ian,
No I am not affended. You are as nice a person as I have met here. It just that the question had to do with discovering when math no longer is representing reality. I have studied and used theoretical physics. I am not a physicist, but I think there is something important to be pointed out about what physics theory really represents. The difficulty to overcome is that most theory is believed to be reality. I was suggesting that none of theory represents reality. When I mentioned that the definition of mass could be chosen differently, I think it should be clear that the original choice made was a guess. No one could possibly know that mass deserves to be an indefinable property. When I mention that we learn everything via photons and that their information is limited to observing patterns in changes of velocity, I don't think that that is a theoretical statement. Photons begin with changes of velocity and end by causing changes of velocity. We can theorize about what photons hold or contain that allows them to cause changes of velocity; but, we cannot know that. It is theoretical.
My point from beginning to end is difficult to make clear against the common belief in theory. This is my point: The best 'theory' is the one that removes all theory. Theory helps us to keep our thoughts straight, but it does the opposite in terms of learning about reality. I do not mean that it is not useful. I only mean that it is invented as a means to proceed with analyzing physics knowledge without needing to understand the nature of cause. We do not know what cause is. Everything that is attributed as being a cause is invented. This practice of theorizing may be useful, but in terms of understanding the nature of the universe, it is misleading and at times misguided. If we wish to allow math to truly serve us in learning about the nature of the universe, then we must let it take its own course and not steer it this way and that way by interjecting theoretical ideas.
The difficulty with suggesting this kind of approach is that theory clearly stands in the way. It is believed to be true. How can one say that everything could be changed when it is believed that everything is known to be true? Anyway I work for the change. That is why I work alone. That is why I put my work on the Internet. There is no other way to let it out. There are no other books or sources to point to. I am not insisting that others should quickly recognize that I am correct. I may not be correct. However, I think it should be possible to challenge theory without having some theory put forward as evidence of the correctness of other theory. I think that theory can never prove theory. The mathematics will work out properly, but the mathematics has long since become the tool of the theorist and the servant of theory.
James
James
report post as inappropriate
Member Ian Durham replied on Feb. 21, 2010 @ 15:35 GMT
James,
Ah! I think I understand! You think a bit like Eddington (I wrote my PhD thesis on Eddington's Fundamental Theory). That is to say he was a bit different, but his motivations were similar. He wanted to strip away all human "prejudices," so to speak, from physical theory so that it was completely independent of human thought processes in a way. In that sense, I think you are absolutely right. As self-consistent and appealing as Moore's definition of mass is, for instance, it's still simply a model that could easily be supplanted by a different model someday and thus isn't any more true than anything else. It may be the best model we presently have, but it's still only a model.
Now, if we were to then proceed from your basic notion - derive a theory without theory - I would think the logical place to start is way back at the beginning with basic math. Find the mathematics that really *is* reality, i.e. that is clearly free of human interpretation (the stuff many species can do, for instance) and work slowly up from there. But this then gets precisely to my original question - where does math start to diverge? If we can identify that point, can we then find an "alternate" route that is more "real?"
Ian
report post as inappropriate
James Putnam replied on Feb. 21, 2010 @ 20:12 GMT
Dear Ian,
It is difficult for any of us to say those things that we think are important in a compact form. I will give it a try:
I think that the point at which math starts to diverge is when we introduce indefinable units. However, let me say this in a different way. Returning to f=ma (I purposefully do not begin with f=dP/dT), the only part of this equation that can be explained is acceleration. That is because it consists of measurements of distance and time. The rest of the equation is unexplained. Force is the unexplained cause for acceleration. Mass is the unexplained cause for the variations of that acceleration. Symbols and names of convenience are used to to form this equation. This practice is helpful without causing problems.
The properties involved are all empirical properties. Two of them are distance and time. These are real directly known indefinable properties. The other two properties are force and resistance to force. These two are indirect empirical properties. Both force and resistance to force have unobservable natures. We know from empirical evidence that they exist; however, all of that data consists of measurements of distance and time. Measurements of distance and time are the extent of direct empirical evidence.
All higher level theory will consist of combinations of these four properties. Everything else added on changing this simple perspective is theoretical. The distortional effects of theory are first introduced by chosing to define mass as an indefinable property requiring its own indefinable units. From this point on all theory using this definition of mass is no more correct than is that first definition. It is important then to get the definition of mass correct right from the start.
I have described mass as the cause of resistance to force. We do not know the nature of any cause. Cause is hidden from us except through its effects. I think that the best approach to reconsidering the definition of mass is to add nothing on to the equation and rely only upon our use of empirical evidence in the form of distance and time and their units only. That is the concept that I used in my earlier message where I showed one possible new way to interpret mass. I have gone a long way by trying out this approach. Perhaps I may have gone astray myself; however, what I can say for certain is that: This idea does not quickly fall apart, it just keeps on going and going.
I will stop and see what you think.
James
report post as inappropriate
Member Ian Durham replied on Feb. 21, 2010 @ 23:23 GMT
James,
Hmmm. The only thing that bugs me a bit is that both distance and time are relative measures, i.e. we know that they are different in different reference frames. I also am not sure I would define mass in that way since we know (e.g. in relation to electromagnetism) that sometimes it is charge that is defined in a very similar way (you should really read Moore - maybe I should actually talk to Tom about writing a condensed, philosophical version of his book for just such a purpose as this).
See, now, Eddington had the same basic view - units were at the heart of the problem. So he tried to build up a theory based on dimensionless ratios. Dirac later combined some of Eddington's ideas with some of Milne's to take this a bit further.
I have to really think about this. I do think units can be a hindrance. But I'm inclined to think that length and time are just as problematic as anything else. Hmmm.
Ian
report post as inappropriate
James Putnam replied on Feb. 21, 2010 @ 23:59 GMT
Dear Ian,
Yes I know that distance and time are relative if we bring Relativity Theory into play. That is not a problem to me. I won't be able to say anything more than that relativity type problems and analogous forms of their respective equations can be drived without Relativity Theory. The only indication that I can put forward in a simple way is to suggest that transform equations are not safe mathematics. They can be made to fit whatever the theorists makes them fit. If the Theory of Relativity was correct, then I should think that it could be derived directly from the fundamentals without the use of transforms. That is what I suggest is both required and possible to do.
Probably something that is of more immediate interest is the fact that you mentioned electric charge. I had it in my message and then took it out. Since you astutely brought it into play, then I will say that it does receive a fate analogous to that which mass suffered. It also does not deserve indefinable status. In support of this statement, I will suggest that physics equations, from an empirical viewpoint, never include causes. Electric charge is a theoretical cause. The possibility of it being artificial is raised by the fact that it was theoretically identified as what were otherwise unknown quantities that appear in Coulomb's equation. This is not easy to say; but it was another theoretical guess.
Causes are not a part of physics equations except in the sense that they are all represented by the equal signs. I guess this is probably enough said. I have suggested before that almost everything could change. If it doesn't look right to you, I understand. It might be better to give it a rest for a while. I do appreciate your patience and thoughtfulness.
James
report post as inappropriate
Eckard Blumschein replied on Feb. 22, 2010 @ 17:14 GMT
Dear James,
Yesterday on Feb.21 you wrote to Ian: "The only indication that I can put forward in a simple way is to suggest that transform equations are not safe mathematics."
Maybe, you did not even take into consideration the absolutely safe practice of engineers who know what they are doing. They first transform physical quantities from a real domain into an artificial, in particular a complex domain and in the end they safely return into the real domain by means of an inverse transform.
Perhaps you meant that transforms itself are safe, provided they are correctly performed, while interpretation in the artificial domain are guesswork and sometimes prone to be fallacious.
Regards,
Eckard
report post as inappropriate
Member Ian Durham replied on Feb. 22, 2010 @ 18:16 GMT
James,
Actually, special relativity can be derived without reference to the transforms. Not to beat a dead horse, but Moore does it graphically in his text.
Can you clarify one thing for me that seems to be hindering my full understanding of what you're saying: when you say equations in physics don't have "causes" what do you mean exactly by "cause" in this case? If it means what I think it means, I would say that most of these "causeless" equations are empirically derived, i.e. they are the way they are because that's what experiment seems to indicate. Maybe this is the point you are trying to get at but I'm not sure.
Eckard,
In regard to your reply to Ken Wharton above, it's interesting to read (and perhaps you have) the history of negative numbers and zero and how these ideas came into being over several millenia. It begs the question of the "existence" of negative numbers as being the absence of something.
Ian
report post as inappropriate
James Putnam replied on Feb. 22, 2010 @ 21:51 GMT
Dear Eckard Blumschein,
"...Perhaps you meant that transforms itself are safe, provided they are correctly performed, while interpretation in the artificial domain are guesswork and sometimes prone to be fallacious. ..."
You are of course correct. Thank you for this clarification.
James
report post as inappropriate
James Putnam replied on Feb. 22, 2010 @ 22:29 GMT
Dear Ian,
"...Actually, special relativity can be derived without reference to the transforms. Not to beat a dead horse, but Moore does it graphically in his text. .."
I haven't seen all the sources there are to learn from; however, I would suspect that he probably went to advanced theory or end points of theory, conservation type properties, and worked his way back from them. If I am wrong than I apologize for misrepresenting what he has done. I was prompted to say this because every explanation I have seen of Relativity Theory, other than its original type derivation, usually begins with theoretically advanced properties that owe their origin to the assumed adoption of Relativity Theory. It is a practice of beginning at the end and working back toward some set of 'fundamental properties' as established by theory. .
"...Can you clarify one thing for me that seems to be hindering my full understanding of what you're saying: when you say equations in physics don't have "causes" what do you mean exactly by "cause" in this case? If it means what I think it means, I would say that most of these "causeless" equations are empirically derived, i.e. they are the way they are because that's what experiment seems to indicate. Maybe this is the point you are trying to get at but I'm not sure. ..."
Thank you for this question. I spent the weekend thinking over what I had said. It seemed clear to me; however, when I thought in terms of explaining it to someone else in detail, I had to think about it a lot. I am still thinking about it and now also writing about it. We do not know what cause is and yet it must be indicated by empirical properties, not theoretical ones, somewhere in the equations. I have already been challenging myself to support what I said. When I can say something more clear about it, or perhaps modify or rescind it, then I will respond.
I also thought that I was once again veering off into my own ideas about possible solutions. The point I really wanted to make, in answer to your original question, was that I think mathematics leaves reality behind when the theorist begins to guess about new extra givens and interjects them into the original equations by identifying unverifiable properties and even more than this, interjecting indefinable units into the otherwise empirically clean equations.
You certainly are patient with me. I acknowledge that I know less than do you about complex theoretical physics and the fullness of empirical knowledge. I do think something is fundamentally wrong; however, I know and appreciate the necessity for demonstrating it and having it challenged. Thank you for your time.
James
report post as inappropriate
Member Ian Durham replied on Feb. 23, 2010 @ 02:41 GMT
James,
Actually Moore makes absolute no reference to higher relativity theory in his derivation. He does (since it's a text) mention the transformations, but it is entirely possible to do special relativity solely with the graphical method (which actually is not unique to him) and never know the transformations at all. Basically it comes from three things: a) the principle of relativity which simply says that the laws of physics ought to look the same in all inertial reference frames, b) recognition that time is not absolute like Newton thought, and c) assuming the speed of light is a maximum.
I look forward to hearing what you have to say about "causes" when you think you've got it worked out. I'm patient for two reasons: a) it's how I wish some of my colleagues would treat me even though the don't and b) I'm a teacher and it's hard to be a teacher without patience.
Cheers!
Ian
report post as inappropriate
James Putnam replied on Feb. 23, 2010 @ 02:55 GMT
Dear Ian,
"Basically it comes from three things: a) the principle of relativity which simply says that the laws of physics ought to look the same in all inertial reference frames, b) recognition that time is not absolute like Newton thought, and c) assuming the speed of light is a maximum."
Ok, that doesn't sound like higher level theory. A and C are fine. Why is B not an example of using Relativity theory to support Relativity Theory?
James
report post as inappropriate
Eckard Blumschein replied on Feb. 23, 2010 @ 17:55 GMT
Ian,
One reason for me to deal in depth with the history of introduction and interpretation of negative, imaginary and complex numbers, evanescent modes, spacetime, apparent power and the like were striking apparent symmetries and those "experts" who offered physical interpretations to mere mathematical constructs instead of admitting redundancies that imply arbitrary choices.
I found out that the mathematicians strove for an as general as possible point of view and therefore neglected R+ as an unimportant special case while virtually all physical items and quantities are basically restricted to positive values except for logarithmic scale or use of an arbitrarily chosen shift of the origin. Isn't this a serious and risky deviation?
You wrote: "it is entirely possible to do special relativity solely with the graphical method (which actually is not unique to him) and never know the transformations at all." Well, likewise one can graphically represent the orthogonality between the voltage at an inductor and the current through it. Here I agree with James Putnam in that the graphical relationship is ambiguous on whether the voltage causes the current or vice versa. My understanding of reality tells me that the primary relationships are not differential equations but integrations and therefore in this case the voltage or in case of motion the force are the action while current or velocity, respectively, are reactions.
In other words, the graphic method just hides the obligation to correctly perform an inverse transform into the domain of reality. As shown by Heisenberg, matrix representation may also obscure the essentials.
Ironically, all fathers of quantum mechanics went wrong just because they cared for physical correctness. They argued that frequency must be a positive and real quantity. However, exactly this good intention led to an apparent symmetry of wave-function, a wrong interpretation that contradicts all experience.
Eckard
report post as inappropriate
James putnam replied on Feb. 24, 2010 @ 04:38 GMT
Dear Ian,
I am still working to support what I said about cause and the equal sign. I have made that statement before, but, this time it struck me as representing something more fundamental than I had previously realized. If cause is unknown and yet it makes its presence known, then in what ways does that occur in theoretically clean empirical equations. I will be either amending or expanding on this question. I am currently thinking that it is the imaginary theoretical causes that are represented by the equal sign because they are not real anyway. There is a fundamental single cause that has not been recognized by theoretical physicists and it does make its appearance in the equations.
I am thinking that the problem I face is to show that that fundamental cause is seen correctly only in terms of distance and time. I believe that mass is such a case. Electric charge is not. Anyway, I am working through it. This message is not at the level of definitively explaining what is on my mind. I will keep thinking and writing, and, I will post my result here. It appears that you have successfully activated this forum
James
report post as inappropriate
Eckard Blumschein replied on Feb. 24, 2010 @ 07:37 GMT
Dear James Putnam,
You wrote: "There is a fundamental single cause that has not been recognized by theoretical physicists and it does make its appearance in the equations."
Zeh, 4th ed. Epilog, p. 198 quoted Carnap (1963): "Einstein said that the problem of the Now worried him seriously. ... he concluded that there is something essential about the Now which is just outside the realm of science."
I consider you correct in that the direction of time is not to be found in the equations but it resides in the influences, all of which belong to the past.
You also wrote: "I am thinking that the problem I face is to show that that fundamental cause is seen correctly only in terms of distance and time. I believe that mass is such a case. Electric charge is not."
I appreciate that you consider distance and time together. Indeed, a negative distance is obviously unrealistic as is negative elapsed time.
Negative mass, negative temperature, negative energy, negative pressure, negative coins, negative area, ...
there is an endless list of items and quantities that do not have a justification unless we leave the original consideration for instance by shifting the origin zero or by measuring in terms of dB. What about electric charge, electrons were by chance called negative. I am not sure about the role of positrons. To my admittedly scant knowledge only a few traces attributed to them were found and immediately welcomed as confirming theory.
Regards,
Eckard
report post as inappropriate
Member Ian Durham replied on Feb. 25, 2010 @ 01:49 GMT
James and Eckard,
I am back after a long day of meetings and classes. Hopefully this will get my mind onto more interesting things...
Anyway, Eckard, I really like your rationale concerning time and distance, i.e. going backward in time is like the idea of a negative length.
Regarding quantities with no justification, Feynman pointed out that energy is one such quantity. We really have no idea what it is.
James, check out either van Fraassen or some other writers on this idea of laws of co-existence and laws of succession (which are selection and superselection rules in the quantum domain). I think it might have some relevance to what you're trying to do with "cause." Also, you might find this new notion of information causality of interest (go to arXiv.org and search for Marcin Pawlowski). It is still more along the traditional lines that you're trying to get away from, but it might be intriguing nonetheless.
Ian
report post as inappropriate
Anonymous replied on Feb. 25, 2010 @ 17:54 GMT
Ian,
You: "...Basically it comes from three things: a) the principle of relativity which simply says that the laws of physics ought to look the same in all inertial reference frames, b) recognition that time is not absolute like Newton thought, and c) assuming the speed of light is a maximum. ..."
Me: "...Ok, that doesn't sound like higher level theory. A and C are fine. Why is B not an example of using Relativity theory to support Relativity Theory? ..."
You: "...James, check out either van Fraassen or some other writers on this idea of laws of co-existence and laws of succession (which are selection and superselection rules in the quantum domain). I think it might have some relevance to what you're trying to do with "cause." Also, you might find this new notion of information causality of interest (go to arXiv.org and search for Marcin Pawlowski). It is still more along the traditional lines that you're trying to get away from, but it might be intriguing nonetheless. ..."
It is not clear to me. Was this last response of yours in answer to my question about B?
James
report post as inappropriate
Eckard Blumschein replied on Feb. 25, 2010 @ 18:13 GMT
Ian,
To engineers, energy is not a basic quantity but relates to other measurable ones: Joule=VAs=Nm.
Isn't it also proportional to frequency which a coefficient h?
Eckard
report post as inappropriate
James Putnam replied on Feb. 25, 2010 @ 19:24 GMT
Ian,
Speaking from my own viewpoint. The concepts called energy and momentum are sum totals of each single event that occurs. They are two different ways to mathematically represent the same event. Energy is the sum total of force times distance. Momentum is the sum total of that same force times the time required to apply that force over the same distance used in the energy calculation. They describe two ways of reporting on the same event. It is to be expected that they would share mathematical forms such as the conservation laws. Beyond this description, there is no empirical basis for theoretical physicists to declare either energy or momentum to be a physical substance.
I have mentioned before, my opinion, that there are only four empirical properties: force, resistance to force, space and time. The latter two are completely unavailable for us to contain and perform tests upon. They are not particles of matter. All tests are restricted to observing the activities of particles of matter. When the theorist begins to talk about physical cause by names such as energy or momentum, and when they begin to talk in terms of effects upon either space or time, I think that they do not have any empirical basis to say these things. They have only their theoretical interpretations of their mathematical equations that were already caused to become distorted by previous theoretical interpretations.
Theory is a guessing game. Professionals require that their guesses must be controlled by the mathematical expressions and and subservient to patterns observed in empirical evidence. This practice does not protect the equations from being captured and distored in their interpretations. In some cases, such as Einstein's theory of Relativity, it doesn't even guaranty that those resulting equations will be complete and proper fits to empirical evidence. So we end up with predictions of singularities, black holes, etc. So, I asked the question about part B in a previous message.
James
report post as inappropriate
Member Ian Durham replied on Feb. 26, 2010 @ 21:17 GMT
James,
Sorry about that. To be clear, I take the non-absolute nature of time to be an empirical result so, to me, it's not using relativity to support relativity. But I am of the opinion that we have to rely on empirical results to at least some extent because we built technology out of this stuff and it's all got to work and be consistent.
Regarding your fundamental quantities, I might agree with space and time, but I definitely don't agree with force, at least how it is presently defined. I might be inclined to agree if we found a "broader" definition that took into account non-interaction-related correlations.
As for things like black holes, even Newton predicted them. But my point is that the empirical evidence of their existence seems irrefutable. See, I personally believe that theory works best when it is based on empirical results since, for better or for worse, that's the window through which we view the world.
Eckard, yes energy does relate to h-bar.
Ian
report post as inappropriate
Eckard Blumschein replied on Feb. 26, 2010 @ 22:22 GMT
Ian,
Thanks for lecturing. My question concerning h was rather a rhetoric one, and I intended to express my opinion that h or h_bar is just a real coefficient comparable with my or epsilon. I do not consider the "quantum of action" and so called quantization condition something peculiar. On the contrary, in my eyes, the re is no essential difference between the relationships frequency/time and momentum/distance. Both are subject to the uncertainty relation which I did visualize in my essay 527 with restriction to R+, i.e. without the imaginary unit!
I should warn everybody: My approach demands to admit that future events cannot have any influence and therefore the very moment is the only reasonable absolute reference point t=0 of elapsed time. Admittedly hard to believe but mathematically correct as soon as some tiny and mostly overlooked flaws in the foundations of mathematics will be amended. Ask your self: Is it justified to deny the use of Dirac impulse at zero just because mathematicians without feeling imagined it symmetrical to zero?
Eckard
report post as inappropriate
James Putnam replied on Feb. 28, 2010 @ 00:12 GMT
Hi Ian,
Thank you for your reply.
"...To be clear, I take the non-absolute nature of time to be an empirical result so, to me, it's not using relativity to support relativity. ..."
I assumed that was the case. It is the answer adopted by theoretical physicsts. I am not one, however, this is the way I see it:
Yes clocks will measure different intervals due to distance...
view entire post
Hi Ian,
Thank you for your reply.
"...To be clear, I take the non-absolute nature of time to be an empirical result so, to me, it's not using relativity to support relativity. ..."
I assumed that was the case. It is the answer adopted by theoretical physicsts. I am not one, however, this is the way I see it:
Yes clocks will measure different intervals due to distance from mass. They are not intervals of time; they are intervals in time. Everything occurs durring time. This is not evidence that time controls everything. It is evidence that the cause of a particular activity is changing. Is time is a cause of activity and does time control the rate of activity? To prove either of those possibilities we need to perform experiments on time? Experiments on clock's of any type is no more informative that experiments on any other activity in the vicinity of the measurements. GPS adds only more additional information about how physical activity varies with respect to distance from mass. Unless time is established as the cause of all of this activity, then time is not the subject of the measurements.
The time dilation equation is actually the t dilation equation. The t in physics equations is a measure in time (some duration of some physical activity) and not of time (as in a testable property in itself). All activity is measured with respect to a standard of activity. That standard can be chosen by virtue of its exhibiting as stable as practical cyclic activity. For example, if one wished to measure the rate of cyclic activity A, one would compare it to the standard for cyclic activity. Both of these cyclic activities are material in nature and are therefore subject to effects brought upon them by other material objects. In other words, they both are variable.
We use the name seconds for the unit of measurement in physics equations: however, in the most fundamental sense, the units of t should be referred to as cycles of the standard chosen. So, by measuring cyclic activity A against the standard cyclic activity B, The true fundamental form of the units for both of them is (#cyclesA)/(cycleB). The property of time is not shown to be affected by this action. All activity requires time to occur. The time taken is a duration in time simply because time is passing during the activity. Time itself is not a physical property that can be sliced up, contained, or molded into a new form.
"...But I am of the opinion that we have to rely on empirical results to at least some extent because we built technology out of this stuff and it's all got to work and be consistent. ..."
I think it is crucial to remain dependent upon empirical results as closely as possible and to use theory only when necessary to risk moving forward in analyses in the face of the unknown. That is why I first refer back to photons as our source of information. They tell us that particles of matter changed their velocities. If there is no change of velocity, then we receive no information. There has never been an experiment that included a change of velocity for either time or space. They just are not available for us to trap and experiment upon.
"...Regarding your fundamental quantities, I might agree with space and time, but I definitely don't agree with force, at least how it is presently defined. I might be inclined to agree if we found a "broader" definition that took into account non-interaction-related correlations. ..."
I use the word force in a generic form, meaning that anything that causes change of velocity is a force. Gravity is a force. If a change in position of one object causes a change in position of another object, regardless of whether or not it is faster or slower than the speed of light, then I think that indicates a force exists. I see no fundamental problem with allowing for this possibility. I see it as analogous to saying that the speed of light is a constant in free space. Any coordinated behavior acrossed the universe is evidence that something is controlled by a means that exists outside the limitations of the speed of light.
"...As for things like black holes, even Newton predicted them. But my point is that the empirical evidence of their existence seems irrefutable. See, I personally believe that theory works best when it is based on empirical results since, for better or for worse, that's the window through which we view the world. ..."
Newton's black hole and Eistein's black hole are very different. Einstein's relies upon the existence of spacetime. There is no evidence that either space or time are affected by the activities of matter. There is evidence that matter affects other matter and that matter and light both affect each other.
I guess this might be getting tedious for you. I appreciate your time. I will let you have the last word. You are the expert.
James
view post as summary
report post as inappropriate
Member Ian Durham replied on Mar. 2, 2010 @ 02:58 GMT
James,
Thanks for the clarification on those points. I think you might have some interesting points to make, though I'm not sure I agree with them all (that, of course, does not mean they are wrong, simply that I have a different view).
I think your reliance on photons is interesting since the one thing that does not change regardless of how we look at it, is the speed of light being a maximum no matter what units we measure it in or what frame we look at it in. I also like your idea of "cycles" as a measure of time, though I should note that, for awhile, that was actually how the international standard of a "second" was obtained (it was based on some number of cycles of something to do with cesium, if I recall - it's been awhile).
I absolutely think there's a problem with the existing definition of "force" and your more general definition might be a good starting place for fixing it.
And this is definitely not tedious. Rather, it is enjoyable. Unfortunately I got busy the last couple of days and couldn't check up on this until just now.
Cheers,
Ian
report post as inappropriate
Member Ian Durham replied on Mar. 2, 2010 @ 23:43 GMT
James,
I was reading something today that pointed out that the Lagrangian approach to classical mechanics has the position and velocity as the only fundamental variables. I had forgotten that fact. In any case, I wonder if you might be able to use Lagrangian methods to achieve some of what you are trying to achieve.
Ian
report post as inappropriate
Eckard Blumschein replied on Mar. 3, 2010 @ 15:20 GMT
James,
You wrote:"The t in physics equations is a measure in time (some duration of some physical activity) and not of time (as in a testable property in itself)."
Zeh also dealt with the question of "direction in time" (A) or "direction of time" (B). He called his book "The physical Basis of the Direction *of* time.
I feel forced to almost agree with your statement because you refer to the common assumption of an a priori given coordinate time (A) for using "t in equations" (C).
Nonetheless I would like to object that this use (C) refers to an abstract notion t that cannot be measured at all. Let me call it even unrealistic in so far as future is predictable to some extent but it definitely evades measurement in advance.
Any clock primarily performs a measurement *of* currently elapsed time, not *in* elapsed time. You have to synchronize it before it shows a moment in commonly agreed time. Notice, I changed the point of view. The usual notion of time needs an arbitrarily agreed point of reference. Positive elapsed real time counts "backward" from t=0. The same holds for anticipated elapsed time.
Why do you consider a timespan a measure in an a priori given time between minus infinity and plus infinity when there is no future timespan available? Do you also allow for negative distances in space?
Eckard
report post as inappropriate
James putnam replied on Mar. 4, 2010 @ 04:27 GMT
Eckard,
I think you raise good challenges, and I am glad you are actively participating here. I will not be answering quickly, because, I have had a busy week that led to my undergoing an out-patient surgery today. I am back at home, doing fine and it is not real serious. However, I think I will wait until I am off pain medication before responding. I just wanted you to know that the delay is not due to lack of interest.
James
report post as inappropriate
Member Ian Durham replied on Mar. 5, 2010 @ 16:28 GMT
James,
I hope you feel better soon and recover quickly! I'm curious what your thoughts are concerning Lagrangian methods (see above)...
Ian
report post as inappropriate
Anonymous replied on Mar. 12, 2010 @ 19:05 GMT
Hi Eckard,
"Why do you consider a timespan a measure in an a priori given time between minus infinity and plus infinity when there is no future timespan available? Do you also allow for negative distances in space?"
I don't think that we disagree about time. I think it rather is sometimes difficult to clearly express our ideas about time. I used the word 'in' time. I do not mean to include any future time sense in my use of that word. I agree that the future does not exist. The past no longer exists either. However, we observe events occurring by remembering the past. In that sense we carry a record of the past along with our thoughts. So we say an event took a certain amount of time to occur. We often speak about this time period as if it exists like a rod. We can hold the rod by both ends. We speak about time as if it retains its two ends. This practice is convenient for communication purposes, but it does not capture the essence of time. Time is always now. Nothing takes place in time if time is present only now. However, in our memory time existed for a duration.
We understand meaning from change. Change is always occurring everywhere at every instant. If there is no change, then we receive no information. We draw forth an understanding of meaning from observing change. So I find it convenient, when talking about physics theory, to approach it from the perspective of change. Not just the instantaneous change, but also the prolonged changes that we observed beyond the restriction of 'now' and keep in our memories. In this sense I think there is justification to look among our observations of change, i.e. empirical data, and find something within our memory of time that will give us understanding about the nature of time. I do not see how to do this looking only at an instantaneous 'now'.
In my work I have achieved many good results about the nature of properties of the universe. I achieved some success with establishing that time is absolute. I mean this word only in the sense that neither we nor any other object in the universe can change anything about time. I think the way to demonstrate this is to show that there is a consistently accurate measure of a period of time that never varies. Objects may shrink in size, they may slow down or speed of their processes, however, there is one process in the universe that always occurs at the very same rate. It is a fundamental constant. For me, that universally constant rate is sufficient evidence that time is well controlled, but not by us. I have also found that that special constant rate of time is the key to achieving a unified theory. Its use repairs the damage that Einstain's relative nature of time has done to theoretical physics.
James
report post as inappropriate
James Putnam replied on Mar. 12, 2010 @ 19:29 GMT
Dear Ian,
"I was reading something today that pointed out that the Lagrangian approach to classical mechanics has the position and velocity as the only fundamental variables. I had forgotten that fact. In any case, I wonder if you might be able to use Lagrangian methods to achieve some of what you are trying to achieve."
Thank you for the lead. I will look into it. I have already done most of my work. All of the results are based upon information containing only distance and time. A possible difference between the Lagrangian approach and mine would be that I do not attempt to bring together in a mathematical form the theoretical properties defined by normal theoretical physics. My approach begins and ends with developing results based upon only one fundamental cause. So there is nothing to list or combine together. Everything springs forward from a single common origin. I do identify the cause. However, I can do that only in the same incidental pretend way that today's physics theory does it.
In other words, I do not know what cause is; however, I do know of one theoretical property of the universe that serves the purpose of substituting for the one fundamental unknown cause. So it is known theoretically. I am interested in the possible treatment of using only distance and time in the Lagrangian method. I will look back and see what was done. I probably will not be able to use it in its own form; however, it may help me to see how to clarify my own ideas for others. In any case, it may finally represent something that I can use as a reference to point to. Truly original work does not seem to give much opportunity to point to others for help in making one's case.
James
report post as inappropriate
Eckard Blumschein replied on Mar. 12, 2010 @ 21:23 GMT
Dear James,
I refer to influences in the moment of consideration. Independently of any subjective memory they definitely relate only to the past.
Regards,
Eckard
report post as inappropriate
Member Ian Durham replied on Mar. 13, 2010 @ 03:57 GMT
James,
Another option is to look at the Lagrangian approach in conjunction with something akin to the consistent histories approach to quantum mechanics where your "initial cause" is simply the Big Bang. Basically you're looking for the ultimate initial boundary condition.
Ken Wharton, who commented above, has worked on studying final boundary conditions to see if it helps to explain some paradoxes in physics.
Ian
report post as inappropriate
James Putnam replied on Mar. 13, 2010 @ 16:23 GMT
Ian,
When I mention the idea of a single fundamental cause, I am not referring to boundary conditions or an initial act such as the big bang. I am thinking in terms of a single, ongoing, always present cause for all activity at all times. That is why I pointed, in an earlier meassage, toward the importance of properly interpreting even as simple an equation as f=ma. If it was properly...
view entire post
Ian,
When I mention the idea of a single fundamental cause, I am not referring to boundary conditions or an initial act such as the big bang. I am thinking in terms of a single, ongoing, always present cause for all activity at all times. That is why I pointed, in an earlier meassage, toward the importance of properly interpreting even as simple an equation as f=ma. If it was properly interpreted, then the cause for all activity would reveal itself even in that equation.
It cannot happen under current circumstances, because, the equation was very quickly made subservient to unempirical ideas such as mass being an indefinable property. Once that decision took hold, the equation became incapable of revealing any information that could help us identify a single cause for the accelerations of all matter under all conditions.
Instead what happens is that theoretical physics introduces additional indefinable properties that lead to different mathematical identities for f. In other words, force cannot reveal information about a single cause because force is theoretically separated into gravity, electric force, weak force, strong force, etc.
Each indefinable idea such as mass, electric charge, temperature, other than distance and time subjects the equations of empirical physics to artifical restrictions without empirical justification. In other words, the added on ideas of theoretical physics distort and restrict the usefulness of the equations. The empirical form of the equations, before the theoretical ideas weigh them down, are the most useful form for the equations to exist in. It is in their empirical form that they can be inspected and contemplated and reveal real knowledge, with real empirical support, about the underlying cause for activity in the universe.
I recognize the incredible mathematical skills, vast theoretical knowledge, and empirical knowledge of theoretical physicsts. I do not wish to appear to disrespect their high level of education and intelligence. However, I am pointing to fundamental theoretical decisions that remain, in my opinion, unsubstantiated and unexplained to this day. I would argue that higher level theory, built upon a foundation of unexplained theoretical ideas, can be no more correct than are those fundamental ideas. The errors are likely compounded as theory becomes more and more complex.
Here is a different example of an unexplained fundamental property. I have raised this issue before in earlier messages in other forums here: What is thermodynamic entropy? I am not asking for an explanation that skips past a direct immediate answer and moves instead immediately to Boltzmann's interpretation and others that followed from it to the present day understanding of available microstates. Thermodynamic entropy is successfully used for important work in different fields. It is something real and yet we cannot explain what it was that Clausius discovered. He gave a very precise definition with its ideal conditions. Those conditions must be met or the calculation of thermodynamic entropy will be incorrect.
These conditions do not apply to the alternative definitions of entropy. In other words, thermodynamic entropy is not represented by those other definitions. What is thermodynamic entropy? Furthermore, its definition includes temperature. Temperature is another indefinable property. What is temperature? I am not asking what it can be related to in so far as related changes occuring to other properties such as energy. Temperature is not energy. I do not think that kind of answer explains what temperature is. How can these questions go unanswered to this day? Why were they skipped over? What problems has this caused for higher level theoretical analyses? Are they fundamental evidence that the mathematical equations of 'theoretical' physics, not empirical physics, became separated from reality right from the start?
James
view post as summary
report post as inappropriate
James Putnam replied on Mar. 13, 2010 @ 17:14 GMT
Ian,
I decided I should make it clear that I am not myself searching for these answers. I have answers. I am asking for answers from theoretical physicists. I am avoiding filling this forum with my ideas, yet, I think it is important to raise these questions and establish whether or not they have been answered or can be answered by theoretical physicists. I say they definitely have not been answered directly or explained as being clear separate properties in their own right.
James
report post as inappropriate
Eckard Blumschein replied on Mar. 15, 2010 @ 04:10 GMT
James,
You wrote: "Theoretical physics has been speculative right from its start" and "I am not referring to boundary conditions or an initial act such as the big bang. I am thinking in terms of a single, ongoing, always present cause for all activity at all times".
Given, there is no understanding of a ubiquitous cause available, why should science reject sometimes using speculative heuristic elements in addition to predominantly success-controlled methods? Let me return to what Ian solicited, discrepancies between speculative mathematical physics and what is reasonably considered the real world. Can you contribute anything but sterile skepticism?
I am not sure whether I already uttered my opinion both understandably and acceptably enough: We should search for overlooked cases of non sequitur. Why did you simply ignore my arguments instead of trying to refute them? I wonder why we seem to agree so much with respect to speculations like Big Bang and boundary conditions.
Eckard
Eckard
report post as inappropriate
James Putnam replied on Mar. 15, 2010 @ 14:06 GMT
Eckard,
I apologize. These last two weeks were uncomfortable for me to sit at my computer. I am right now printing off messages and I will reread them. I may have missed reading or did not read carefully enough some of the messages. I will look back over the messages of these last two weeks and prepare a response.
James
report post as inappropriate
James Putnam replied on Mar. 21, 2010 @ 16:21 GMT
Eckard,
I do not bother to give answers to my own questions because the answers have no value if the reader sees no value in the questions. I consider the practice of guessing to be an unacceptable and unscientific part of theory. I think it is the need for guessing, due to lack of real empirical knowledge, that creates the need for theory. I expect that any theory formulated by competent...
view entire post
Eckard,
I do not bother to give answers to my own questions because the answers have no value if the reader sees no value in the questions. I consider the practice of guessing to be an unacceptable and unscientific part of theory. I think it is the need for guessing, due to lack of real empirical knowledge, that creates the need for theory. I expect that any theory formulated by competent professionals to be useful. However, usefulness is due to the practice of fitting the equations of a theory to the patterns observed in empirical evidence. Those patterns are always found in information about changes of distance with respect to time. If the theorist interjects ideas about properties that cannot be expressed in terms of distance and time then the theorist is inventing properties that have no empirical basis.
There is no point that I can see for my mentioning what I believe is the single ongoing cause for all effects. If the reader is not interested in revisiting the decisions made during the development of the fundamentals of theoretical physics, then what is the point of doing anything more than raising the questions. If the questions are considered correctly answered, then who will care about other possible answers. If you think that f=ma has been properly interpreted, then there is nothing to be gained by my discussing anything additional about it. I questioned the validity of the interpretation of mass in f=ma because I think guesses should be challenged. I questioned it because I think it is the most important question that theoretical physicists should be asking themselves. I questioned it because I think correcting the theoretical interpretation of mass is the key to removing that guess and additional guesses from theory and bringing theory much closer to empirical knowledge. If fact, it may be possible to eliminate the need for theory. In other words, I think it is possible for facts to replace guesses.
"Given, there is no understanding of a ubiquitous cause available, why should science reject sometimes using speculative heuristic elements in addition to predominantly success-controlled methods? ..."
There is no chance for understanding if important fundamental questions remain unanswered. I think your statement does express the attitude that has given rise to the practice of theoretical physics. You refer to 'speculation' where I would use the word 'guesses'. I take a firm position against the practice of guessing just so that the theorist can move on with formulating their theory.
"...Let me return to what Ian solicited, discrepancies between speculative mathematical physics and what is reasonably considered the real world. Can you contribute anything but sterile skepticism?"
I assume you wish to return the discussion back to the point where you think the discrepancies exist. I have done the same. We disagree on where that point is. I say it begins with the speculative interpretation of f=ma. You describe this as 'sterile skepticism'. I presume that you reject any need for reviewing the original theoretical interpretation of mass. I think the use of the word 'sterile' indicates that you believe in most of theoretical physics. I assume you see no need to challenge that which you believe has repeatedly been proven to be correct. If this is the case, I reject the belief that any of the guesses forced into theoretical physics have been proven to be correct interpretations of real empirical properties.
With regard to time, I think that Einstein's theory of relativity is clearly wrong. I choose the words 'in time' to remove the property of time from any possible control by us or anything event that occurs in the universe. I do not see why that word implies anything more than that. For any event to be recorded as having occurred, it must be referenced to changes of distance with respect to a duration of time. We cannot work with the idea of an instantaneous time that does not have duration. You speak about influences of the past. I suggest that there can be no such influences unless we allow for duration. It is the use of duration that provides the information necessary to explain both the past and predict the future.
My voice is only that of an individual. I think you probably have important points to make. I enjoy reading your challenges and the responses by others. There may be much to be gained by you from discussions with physicists and mathematicians. They are the qualified experts who's opinions matter.
I have waited to see if Ian would respond to my last message to him. He has not. I think that my approach to this discussion has run its course. I will return to continuing to advance my own work. In my own work I answer all questions that I raise. I think the questions deserve real answers.
James
view post as summary
report post as inappropriate
James Putnam replied on Mar. 21, 2010 @ 19:59 GMT
Eckard,
"...Nonetheless I would like to object that this use (C) refers to an abstract notion t that cannot be measured at all. Let me call it even unrealistic in so far as future is predictable to some extent but it definitely evades measurement in advance. ..."
The 't' in physics equations can be measured. It cannot be measured into the future, but it can be quite accurate in...
view entire post
Eckard,
"...Nonetheless I would like to object that this use (C) refers to an abstract notion t that cannot be measured at all. Let me call it even unrealistic in so far as future is predictable to some extent but it definitely evades measurement in advance. ..."
The 't' in physics equations can be measured. It cannot be measured into the future, but it can be quite accurate in forcasting future 't'. In no case does any of this apply directly to real time. Real time cannot be measured because we use only physical means to attempt to measure it. Real time does not extend into the past anymore than it extends into the future. Real time is a major part of what keeps the operation of the universe orderly. The 't' of theoretical physics can't even keep theoretical physics orderly.
"Any clock primarily performs a measurement *of* currently elapsed time, not *in* elapsed time. You have to synchronize it before it shows a moment in commonly agreed time. Notice, I changed the point of view. The usual notion of time needs an arbitrarily agreed point of reference. Positive elapsed real time counts "backward" from t=0. The same holds for anticipated elapsed time."
Any clock performs a measurement of its own rate of action that takes place during time. I simply prefer the word 'in' instead of 'during'. I have to use the word that I think best represents the act of separating real time from the theoretical 't'.
"Why do you consider a timespan a measure in an a priori given time between minus infinity and plus infinity when there is no future timespan available? Do you also allow for negative distances in space?"
I think it is reasonable to speak about plus and minus time so long as we are speaking within the realm of theoretical physics. Theoretical phyhsics does not deal with real time or with other real properties. If the properties are proven to be real, then they are empirical properties. Theory is necessary only for filling in gaps of knowledge about what is real. With regard to real time, there is neither the future nor the past available to us for the purpose of study. There is only our record of activities that occurred previous to now. All information we use is information that is not occurring now. It is always information about the past separate from any instantaneous now. We function according to information about the past. We never know what it is that is occurring now.
I do not allow for negative space. Lengths or distances can be referred to as either plus or minus depending upon their usefulness in equations. That kind of use for either time or distance is not attacking the concepts of space and time as themselves being negative and positive. This practice is simply a mathematical convenience suitable to help us communicate our ideas. If our ideas work better by choosing a reference point either in the past or in the future, or plus or minus, I see no problem with doing that so long as we do not believe that our theoretical ideas are true.
Both space and time are communicated to us as ideas. They have equal standing as ideas. It is our ideas formed from information about distance and time that we use to form our impressions and interpretations about the form and nature of the universe. We never experience anything other than information that our minds become aware of only within ourselves.
James
view post as summary
report post as inappropriate
Eckard Blumschein replied on Mar. 21, 2010 @ 22:45 GMT
James,
You wrote: "I expect that any theory formulated by competent professionals to be useful."
What about aleph_2? Nobody managed to use it. Not just Ebbinghaus mentioned "an obvious mistake".
--- What about SUSY, Higgs boson, string theory, white holes, hairs of black holes, anti-worlds, etc. I do not exclude that at least a few of them are unrealistic, useless, or not...
view entire post
James,
You wrote: "I expect that any theory formulated by competent professionals to be useful."
What about aleph_2? Nobody managed to use it. Not just Ebbinghaus mentioned "an obvious mistake".
--- What about SUSY, Higgs boson, string theory, white holes, hairs of black holes, anti-worlds, etc. I do not exclude that at least a few of them are unrealistic, useless, or not even testable. Why do you consider "competent" professionals always correct? I was a university teacher for 40 years. Do you consider someone like me not competent enough as to have revealed foundational errors? Admittedly, I am not familiar with SUSY, etc. However, I maintain my argument that future does not yet exist before the moment of concern.
You wrote: "I think correcting the theoretical interpretation of mass is the key to removing that guess and additional guesses from theory and bringing theory much closer to empirical knowledge. If fact, it may be possible to eliminate the need for theory. In other words, I think it is possible for facts to replace guesses."
--- Uncle Al tried to substantiate his doubt by referring to facts. Do you support him?
I wrote:""Given, there is no understanding of a ubiquitous cause available..." and you replied: "There is no chance for understanding if important fundamental questions remain unanswered."
--- Those who are believing in a religion will agree in that science hat its limits. Except for such questions like the beginning/end/size, etc. of the world, there are almost unlimited possibilities of understanding. I am sure: You cannot explain how answering of your question would contribute to any understanding. Let me say it quite pronounced: I see your question for a primary cause pointless.
I wrote: ²Let me return to what Ian solicited, discrepancies between speculative mathematical physics and what is reasonably considered the real world.
You replied: "We disagree on where that point is. I say it begins with the speculative interpretation of f=ma." and "... original theoretical interpretation of mass".
--- Could you please specify to whom you refer who gave an original theoretical interpretation of mass and to whom who speculatively interpreted it. While I am not at all interested in any interpretation of mass, I would like to understand you.
You wrote:"I choose the words 'in time' to remove the property of time from any possible control by us."
--- Well, I am ready to accept expressions like 'in elapsed time' or even "in the time to come". We should agree in that any travel in time is only possible on the level of imagination. I do not accept the ideas that the future already exists in advance, and the very moment does not matter in physics.
You wrote: "You speak about influences of the past. I suggest that there can be no such influences unless we allow for duration."
--- Yes, duration is a sum (integral) of time-increments. My point of view is merely uncommon. The traditional notion of an integral leans on the traditional notion of time with an arbitrarily chosen point zero. Alternatively we may consider the steadily growing duration from a fixed event in the past to the steadily changing instant zero. This way integration and differentiation both at zero would no longer be different from each other: Traditionally we have two borders of integration and an integration constant but d/dx refers just to the slope at a single x. Mathematicians will be worried.
Eckard
view post as summary
report post as inappropriate
James Putnam replied on Mar. 21, 2010 @ 23:42 GMT
Eckard,
Part One:
'James wrote: "I expect that any theory formulated by competent professionals to be useful."'
Eckard: "What about aleph_2? Nobody managed to use it. Not just Ebbinghaus mentioned "an obvious mistake".
James: What about the theory of relativity? What about quantum mechanics? Even Lorentz's theory was useful in his time. I am not vouching for the...
view entire post
Eckard,
Part One:
'James wrote: "I expect that any theory formulated by competent professionals to be useful."'
Eckard: "What about aleph_2? Nobody managed to use it. Not just Ebbinghaus mentioned "an obvious mistake".
James: What about the theory of relativity? What about quantum mechanics? Even Lorentz's theory was useful in his time. I am not vouching for the competnece of all professional's. I am referring to theories that have won common acceptance. In other words, competent professionals use them to achieve results that are usefully close to empirical results.
'Eckard:--- What about SUSY, Higgs boson, string theory, white holes, hairs of black holes, anti-worlds, etc. I do not exclude that at least a few of them are unrealistic, useless, or not even testable. Why do you consider "competent" professionals always correct?'
James: I did not say that competent professionals were always correct. I have gone so far as to say that Einstein was incorrect. However, his theory has been very useful. What I do say is that I think all theory that has been developed upon the bases of guesses is at high risk to be wrong. Furthermore, it is my opinion that all theory that uses the current interpretation of mass is wrong. I think that the subjects you mention above are silly ideas put forward by theorists who are more interested in scorring points at a chalk board than they are at proving their theories first with empirical evidence.
Eckard: "I was a university teacher for 40 years. Do you consider someone like me not competent enough as to have revealed foundational errors? Admittedly, I am not familiar with SUSY, etc.
James: I think you certainly are competent enough to have revealed foundational errors. I think you are more capable of doing this service than are a great many theoretical physicists who proceed on the basis that that which has preceded them is deemed to be correct.
Eckard: "However, I maintain my argument that future does not yet exist before the moment of concern."
James: The future never exists. However, we do not know anything beyond what the past is telling us. We do not know what is happening now. Photons take time to reach us from any source. I am not saying that the past persists. I am saying that the knowledge of the past persists and that is what we receive in the form of information. I am also saying that that information is understood by us to be changes of distance with respect to a duration of time. The duration itself may not exist. I would expect that the passage of time is instantaneous. However, we do not receive information about instantaneous changes. The information we receive is always about lengths of distance and durations of time. This information tells us about how some effect has changed during a past experience. It is from that past experience that we are made knowledgeable enough to predict the future.
Eckard: 'You wrote: "I think correcting the theoretical interpretation of mass is the key to removing that guess and additional guesses from theory and bringing theory much closer to empirical knowledge. If fact, it may be possible to eliminate the need for theory. In other words, I think it is possible for facts to replace guesses." ...
...--- Uncle Al tried to substantiate his doubt by referring to facts. Do you support him?"
James: Uncle Al has no bearing on this matter in so far as I am concerned. I have seen the real Uncle Al at work in other forums. I prefer to think differently and be different from him. I will have nothing more to say about him.
James
view post as summary
report post as inappropriate
Anonymous replied on Mar. 21, 2010 @ 23:49 GMT
Eckard,
Part Two:
Eckard: 'I wrote:""Given, there is no understanding of a ubiquitous cause available..." and you replied: "There is no chance for understanding if important fundamental questions remain unanswered."...
...--- Those who are believing in a religion will agree in that science hat its limits. Except for such questions like the beginning/end/size, etc. of the...
view entire post
Eckard,
Part Two:
Eckard: 'I wrote:""Given, there is no understanding of a ubiquitous cause available..." and you replied: "There is no chance for understanding if important fundamental questions remain unanswered."...
...--- Those who are believing in a religion will agree in that science hat its limits. Except for such questions like the beginning/end/size, etc. of the world, there are almost unlimited possibilities of understanding. I am sure: You cannot explain how answering of your question would contribute to any understanding. Let me say it quite pronounced: I see your question for a primary cause pointless."
James: I think I understand. You disdain religion. You think that your disdain for religion gives you a better scientific viewpoint. I do not have a religion. I said that there is one primary cause because that is what true unity requires. The piecemeal approach of developing disunified theory and later trying to force unity upon it is what leads to silly theories such as string theory. Extraordinary measures are required to cover up a long list of questionable theoretical guesses. If error is not corrected then it must be covered up by piling on more guesses.
Eckard: 'I wrote: ²Let me return to what Ian solicited, discrepancies between speculative mathematical physics and what is reasonably considered the real world. ...
...You replied: "We disagree on where that point is. I say it begins with the speculative interpretation of f=ma." and "... original theoretical interpretation of mass". ...
...--- Could you please specify to whom you refer who gave an original theoretical interpretation of mass and to whom who speculatively interpreted it. While I am not at all interested in any interpretation of mass, I would like to understand you. ..."
James: I introduced my concerns about mass by pointing out that it was arbitrarily assigned an indefinable nature and was assigned indefinable units of measurement. I think I have been quite clear and consistent on this point. No one could have known that that was an empirically justified act. I take the position that not only was it as guess, but that it was a wrong guess. The evidence for a correct guess is that any property mentioned should be reducible to empirical properties. The empirical properties upon which all of our knowledge is based include only distance and time. In other words, mass can have made up units such as kilograms, but it must be possible for the theorist to demonstrate that kilograms are based solely upon units of distance and time and it should be shown how this is done.
Eckard: 'You wrote: "I choose the words 'in time' to remove the property of time from any possible control by us." ...
...--- Well, I am ready to accept expressions like 'in elapsed time' or even "in the time to come". We should agree in that any travel in time is only possible on the level of imagination. I do not accept the ideas that the future already exists in advance, and the very moment does not matter in physics. ..."
James: What I wish to convey about time is that regardless of what words we use, Einstein's relative time is not the time that I speak of nor is it the time represented in any current phyhsics equation as 't'. It is my position that neither space nor time are properties to which we have access to for the purposes of either experimentation or control.
Eckard: 'You wrote: "You speak about influences of the past. I suggest that there can be no such influences unless we allow for duration." ...
...--- Yes, duration is a sum (integral) of time-increments. My point of view is merely uncommon. The traditional notion of an integral leans on the traditional notion of time with an arbitrarily chosen point zero. Alternatively we may consider the steadily growing duration from a fixed event in the past to the steadily changing instant zero. This way integration and differentiation both at zero would no longer be different from each other: Traditionally we have two borders of integration and an integration constant but d/dx refers just to the slope at a single x. Mathematicians will be worried."
James: I applaud your efforts.
James
view post as summary
report post as inappropriate
Eckard Blumschein replied on Mar. 23, 2010 @ 09:50 GMT
James,
I do not appreciate you considering Einstein's theory of relativity wrong without revealing to what extent and for what reason. I do not share a basic assumption that was taken for granted not just by him: the a priori existence of time.
Dealing with Kant, I found: "Space is not an empirical notion ...(but) ... a necessary imagination, a priori, ... . ... a priori determined. ... a priori, i.e. prior to any perception...".
Perhaps, Ritz was not entirely wrong. The old Einstein admitted being seriously worried and "a matter of painful but inevitable resignation" (Zeh, 4th ed., p 198).
Eckard
report post as inappropriate
James Putnam replied on Mar. 23, 2010 @ 18:12 GMT
Eckard,
The subject of this thread is about mathematical speculation. I do not want to hijack it for the purpose of promoting my ideas. All of my work is located at my website. However, I responded to the subject of this thread by posing a challenge to the interpretation of mass. If mass was correctly interpreted, you would see what Einstein did wrong. Here is an excerpt from an earlier...
view entire post
Eckard,
The subject of this thread is about mathematical speculation. I do not want to hijack it for the purpose of promoting my ideas. All of my work is located at my
website. However, I responded to the subject of this thread by posing a challenge to the interpretation of mass. If mass was correctly interpreted, you would see what Einstein did wrong. Here is an excerpt from an earlier message I wrote in this thread:
"...If we solve for f/m = a, we see that the combined units of force and mass must be reducible to those of acceleration. In other words, the replacement for newtons divided by the replacement for kilograms must reduce to meters divided by seconds squared. In addition, we can expect that they must have a reasonable chance of making physical sense. All physical sense is made known by changes of velocity.
We can try the guess that they have units of velocity or even guess they have units of change of velocity. There is also the possibility that one of them does not have units. As a first effort at solving this problem, we may begin with the simplest possible interpretation for force. This interpretation is that force represents a ratio of two quantities of the same property. This would define force without units. It also assigns units of inverse acceleration to mass. If this solution is real, then force may be the ratio of object acceleration to a more fundamental acceleration.
If this kind of relationship could be established, then what we would be looking for is a pervasive form of acceleration that becomes traded off for object acceleration. It would be a matter of conservation of acceleration. Unity requires that we avoid concluding it is a mysterious new property of the universe. We can expect it to be an acceleration of a single, most fundamental, property. ..."
If the acceleration property of mass was properly identified, it would disprove Einstein's postulate that the speed of light is a universal constant. More than that, correcting the interpretation of mass changes almost everything in theoretical physics. Wherever the present indefinable property of mass is used to develop higher level theory, that theory is inherently incorrect. Even the interpretation of electric charge changes after mass is correctly interpreted.
The answer to my challenge of the current interpretation of mass is that: Mass is the inverse of the acceleration of light due to the particle in question. It is the acceleration of light that is the single cause for all effects at all times anywhere in the universe. The mathematical redevelopment of the fundamentals of theoretical physics necessary to support this claim are publicly available at my
website.
For much shorter reading, my first essay
'The Absoluteness of Time' was an out of context example of the kinds of changes that occur after mass is corrected. I presume that you did not read it. If you did read it and determined that it was cranky, then you can say so without offending me. That essay reveals the property that I have identified as 'the clock of the universe'. It keeps perfect time always. It is a duration of time that is a fundamental universal constant.
Therefore, one of the several reasons why Einstein's theory of relativity is wrong is that time is not relative. The mathematical equations necessary to show what is wrong with Einstein's theory are located at my
website. When the interpretation of mass is corrected using the acceleration of light, then all things fall into place in a fundamentally unified theory.
Ian appears to be unavailable. As I said earlier: I think that my approach to answering the thread question has run its course.
James
view post as summary
report post as inappropriate
Eckard Blumschein replied on Mar. 24, 2010 @ 15:47 GMT
James,
When I was reading your essay on time, I felt not yet immediately in position to judge whether or not your application of Bohr's model of an electron orbiting a proton might be correct. I got already confused when you did not distinguish between my and my_zero, epsilon and epsilon_zero. You finally lost me when you claimed that my_zero is not 4 pi 10^-7 Vs/Am but the relation between the velocity of light (obviously in vacuum because there is no known value for the velocity of light in copper) and the velocity of sound. This is perhaps easily falsifiable. Sorry.
Eckard
report post as inappropriate
James Putnam replied on Mar. 24, 2010 @ 17:25 GMT
Eckard,
Thank you for your reply. An electrical signal traveling through copper moves at the speed of light. The speed of light always measures the same under any local conditions. I refer to any mu and epsilon for any material. The equation works well for solids and not so well for gases. I began with the simple bohr model because it is sufficient, within the constraint of a 10 page essay, to make my points. I also write in as simple a form as I can so that readers other than physicists can follow my work. I anticipated that physicists would not read my work or would reject it outright. I think it is quite clear that I cannot be correct unless theoretical physics is wrong about almost everything. There were results given in that essay that go beyond the points you raised. If they are not sufficient to raise the interest of others, then that will have to remain the case for now. My total work is far more extensive than that essay. I think I should return to doing it. I need next to re-interpret the fundamentals of quantum theory. Thank you for taking the time to read my essay. I really am interested in reading more of what you have to say about your ideas in discussions with professional physicists and mathematicians. I will look for future posts.
James
report post as inappropriate
James Putnam replied on Mar. 24, 2010 @ 21:31 GMT
Dear Eckard,
I am repeating this message here after mistakenly posting it in another thread:
I think I should say more since your interest in the audible spectrum is very high:
"...You finally lost me when you claimed that my_zero is not 4 pi 10^-7 Vs/Am but the relation between the velocity of light (obviously in vacuum because there is no known value for the velocity of light in copper) and the velocity of sound. This is perhaps easily falsifiable. Sorry."
The velocity of sound is a rate of interaction between particles of matter. Similarly to that of light, sound as we hear it, is a limited part of the sound spectrum. In other words, particles interact between one another, theoretically speeking, over any distance. It will usually be the case that most of the interaction is undetectible by the hearing sense. Even in free space there are particles and they do interact with one another in the same manner in which more dense particles create the sensation we call sound. The difference is not of kind but rather of intensity. Therefore, in the strictest sense, if the effect is called sound in its most general form, then there is an effect of sound even in free space. We do not need to hear it in order to anticipate that it must be occurring even there. What do you think? By the way, I do not recall ever saying that the magnitude of mu_zero is not 4 pi 10^-7 (appropriate units can be added here, either yours or mine. They are different).
James
report post as inappropriate
Eckard Blumschein replied on Mar. 26, 2010 @ 20:06 GMT
James,
You might judge yourself whether or not your ideas are correct and of what use. I am very sorry, I cannot hide my disagreeing. For instance, electric signals do not at all propagate within copper. The signal in a 50-Ohm cable propagates approximately with a velocity of 2/3 c. Do not try discussing. Try to live with the possibility of being simply wrong.
All the best,
Eckard
report post as inappropriate
James Putnam replied on Mar. 27, 2010 @ 01:38 GMT
Ok no more discussion.
James
report post as inappropriate
James Putnam replied on Mar. 27, 2010 @ 23:21 GMT
Dear Ian,
Thank you for your previous messages and time. Due to your lack of participation here, I am leaving your forums. Congratulations to you for winning a prize for your essay. I wish you well as a new member of fqxi.
James
report post as inappropriate
Member Ian Durham replied on Mar. 28, 2010 @ 14:54 GMT
James,
I hope you didn't take that too personally. I have been out of town and in administrative meetings for the past few weeks and have had little or no time to follow what's going on here so my apologies.
Thanks for your congrats!
Ian
report post as inappropriate
James Putnam replied on Mar. 28, 2010 @ 19:50 GMT
Dear Ian,
Sorry about that message. I became impatient. I did not wish to get into any conversations about my own work, but it happened anyway. I believe in the work I am doing, I do not expect others to feel the same way. My intent here is simply to give my perspective on speculative mathematical analysis. I have pointed out that I think that speculation became a part of physics theory as early as the interpretation of mass in f=ma. In fact I am certain that mass was interpreted incorrectly. However, my only point that is appropriate here is: Can physicists justify introducing indefinable properties into their equations? There are others besides mass. I say they cannot.
James
report post as inappropriate
James Putnam replied on Mar. 29, 2010 @ 15:59 GMT
Ian,
In my last message I said:
"...Can physicists justify introducing indefinable properties into their equations? There are others besides mass. I say they cannot."
Looking at it now, I did not state my case correctly. I am restating it as:
'Can physicists justify introducing indefinable units into their equations?'
I am simply adding my opinion to the record here. I do not expect and certainly do not insist that others must see things my way. I will let the totality of my work determine that in the long run. So, it is fine with me if it goes undebated here. Either way is ok. I am satisfied to continue developing my own theoretical work and look forward to the next essay contest.
I would like to read opinions about your question from members. I hope they decide to participate. Their opinion is more relevant to the physics community than is mine.
Best wishes,
James
James
report post as inappropriate
James Putnam replied on Mar. 29, 2010 @ 22:44 GMT
Ian,
I stated in an earlier message that cause is included in theoretical physics equations only by representation as symbolized by the equals sign. I think that is correct to say. In a later message I wrote:
"...I am still working to support what I said about cause and the equal sign. I have made that statement before, but, this time it struck me as representing something more fundamental than I had previously realized. If cause is unknown and yet it makes its presence known, then in what ways does that occur in theoretically clean empirical equations. ..."
Here is what I think: In general - The left side of an equation shows initial conditions. The right side of an equation shows final conditions. The equal sign symbolically represents the cause of transforming initial conditions into final conditions. There is representation of the cause on the right side of an equation, but not by its fundamental identity. In other words, a force is not represented directly as the property force. The force is represented by its potential change of distance with respect to time. So an equation, in simplest form would look like this:
(velocity_1) plus (potential-change-of-velocity) = (velocity_2)
All units are in the form of distance and time only. In other words: An initial value of distance with respect to time is to be added to the potential change in the distance with respect to time resulting in a new single value of distance with respect to time. The means by which this addition occurs is represented by the equal sign. We never know the nature of the means. We only know the patterns we observe in its effects on velocity. The effects are always changes of velocity. The potential change in velocity is derived by observing the patterns in empirical evidence and using them to project a specific change.
There is no need to respond to this unless you think it is of interest and worth your time. It represents my view and it is worth my time to state it here. I like it, but I do not insist that others should agree with me.
James
report post as inappropriate
Member Ian Durham replied on Mar. 30, 2010 @ 02:15 GMT
James,
Actually, I'm writing an essay right now on the definition of mass and I think you're right in that there's a fundamental problem in the interpretation of F=ma. In fact there's quite a bit of literature out there discussing exactly that (Max Jammer, Frank Wilczek - with whom I disagree on this point, Euler, Mach, et. al.).
I have to think some more about your last point before responding.
Ian
report post as inappropriate
James Putnam replied on Mar. 30, 2010 @ 13:36 GMT
Ian,
I am not familiar with those persons. I am glad to hear that some physicists are reconsidering the interpretation of mass. I am sure that you recognize that getting mass right will have effects that go beyond f=ma. Einstin's e=mc2 is affected. I am not saying that relativity type effects are not real. I am saying that getting mass right unravels Einstein's theory of relativity. There will be new equations that are analogous in form to his; however, they will have important differences in form and interpretation. Once mass is 'touched' it becomes easier to look anew at other invented properties such as electric charge. Electric charge also needs corrected. Getting it right is the key to achieving a unified theory. That is my opinion because I have been through this.
James
report post as inappropriate
Member Ian Durham replied on Apr. 3, 2010 @ 00:03 GMT
James,
Well, the interesting thing is that if indeed there is something wrong with mass, it would not be that great a leap to think there was something wrong with electric charge as well. Of the intrinsic properties of particles (interestingly enough), they are the only two that are "classical" (in that they were originally considered and defined prior to quantum theory). I'm not necessarily saying that the solution lies in quantum theory, simply that it is curious that they share that attribute.
Ian
report post as inappropriate
James Putnam replied on Apr. 7, 2010 @ 21:24 GMT
Dear Ian,
I have become involved in a discussion in the blogs section with Tom. I will be posting a response there. I prefer to post it here first, because it is related to the discussion that took place here first. I have appreciated very much your courtesy, patience,and thoughtful responses. It is possible it may change slightly before reposting it. However, here it is for your...
view entire post
Dear Ian,
I have become involved in a discussion in the blogs section with Tom. I will be posting a response there. I prefer to post it here first, because it is related to the discussion that took place here first. I have appreciated very much your courtesy, patience,and thoughtful responses. It is possible it may change slightly before reposting it. However, here it is for your consideration.
Tom wrote:
"Really James, this has gone beyond ridiculous. Special and general relativity are kinetic theories; therefore, empirical. ..."
No theory is empirical. Theory is the accumulation of guesses that the theorists choose, because of their own philosphical biases, to replace that which they do not know about why the universe functions as it does. Empirical science belongs to the real world, and, it studies patterns in effects. It is only effects that the universe makes known to us.
"...And you're taking issue with _Newtonian_ physics, too? Wow. ..."
The theoretical guess pushed onto f=ma was the decision to declare mass to be an indefinable property deserving its own indefinable units of measurement. No one could have known that that was true. It contradicts unity in the universe. Even worse, it made disunity a permanent part of our analysis of the operation of the universe. That is where theoretical physics first began to stray away from empirical science. That single act caused force to be improperly defined resulting in both energy and momentum being improperly defined and adversely affected all higher level theory that has made use of any of these properties.
Theoretical physics is a facade that prevents us from seeing the universe as it really is. I began removing that facade starting with f=ma. Behind the facade, I have found that the erroneous guesses of theoretical physics have been compounded and are distorting mass, electric charge, space, time, temperature, thermodynamic entropy, the origins of the fundamental constants of nature, the fine structure constant, permittivity, permeability, and have made disunity so firmly a part of our analyses that numerous unobservable properties must now be invented out of nothing in order to try to patch theory back together again. They are the new strain of guesses. That which we carelessly tore apart must now be joined back together with super, or hyper, but in any case, magic glue.
The guesses are easy to identify. Everytime a theorist declares a property to be a cause, it is a guess. Theory is the practice of inventing causes. No one knows what cause is. Furthermore, our equations cannot display cause on either side. If cause is found on either side, then that is a clear theoretical error. It may be a real, even though improperly defined, property, but it is not a 'cause'. There is a symbol that we use in our equations to represent all causes. That symbol is the equals sign.
All of your theoretical 'causes' could be squeezed behind the equals sign and empirical knowledge would not suffer. The equations would be better for it. They would be returned to their original, natural state. They would once again be empirical equations. Then, they could tell us the truth about that which we can know scientifically and that which we cannot. However, so long as they remain represented as physics equations, they can only serve to help us solve mechanical type problems.
I have previously objected to the use of the word 'tells'. It is certainly true that each object in the universe knows what to do. Cause is knowing what to do and reacting accordingly to an effect. An original cause is 'knowing everything to be done'. It is fair enough, in a general sense, to say that one object tells another what to do. My objection was directed at the use of the word 'tells' within the context of theoretical physics. Knowing, or intelligence, is the most important property of the universe, but it is not a property of theoretical physics. The philosophy upon which theoretical physics has been constructed cannot call upon any semblance of intelligent act in order to explain anything. The underpinning of the philosophy of theoretical physics is that the universe is mechanical, inanimate, purposeless and dumb. It can never know 'Why?'.
James
view post as summary
report post as inappropriate
Member Ian Durham replied on Apr. 8, 2010 @ 00:47 GMT
James,
I think, at the core, you are absolutely right that there is a serious discord between theoretical physics and empirical physics. I'm not entirely sure I agree it goes all the way back to Newton, but I definitely agree that it is prevalent in modern physics (my latest Facebook update was lamenting exactly this point). Don't let the naysayers deter you. Whether or not I agree with everything you say, I will say 'Vive l'empiricism!'
Ian
report post as inappropriate
James Putnam replied on Apr. 10, 2010 @ 20:31 GMT
Dear Ian,
Thank you for your message. I am thinking about bringing up specifics with regard to the problems I see in theoretical physics.
"...there is a serious discord between theoretical physics and empirical physics. I'm not entirely sure I agree it goes all the way back to Newton, ..."
Maybe I am right and maybe I am wrong. However, what I see in f=ma is a refutation of relativity theory. Changing mass changes almost everything. Getting it right, I think, will correct almost everything. I am certain it is not yet correctly defined. I say only those things which I am prepared to explain. I may be wrong; however, I have reasons for saying the things that I say. Maybe I will get to share them.
It is not easy to participate in a physics forum setting and challenge theoretical physics as strongly as I do. It certainly would be advantageous to actually be a theoretical physicist. Still, I would like to see this through. I cannot believe the patience of FQXi. Probably no one was more surprised than me to have Brendan approve my input, at least for a while. I think what I have to say may be a valuable leasson, maybe for me or maybe for others. I have a lengthy website available for anyone to view. I do not have problem, I think, with being corrected. However, correctness appears to exist oftentimes in our viewpoints. Who knows? I would like to know. Anything you have to say would be welcome.
James
report post as inappropriate
Member Ian Durham replied on Apr. 12, 2010 @ 23:54 GMT
James,
I am thinking very long and very deeply about the points you raise. I just got into an argument with someone on a different forum over this. Ironically the guy also happens to be an FQXi member. He was not particularly patient but that is another story. Indeed, the FQXi folks active here are patient since the core of FQXi is to ask questions. I just listened to an interview with Gregory Chaitin (yet another FQXi member) and I'm more convinced than ever that we have absolutely no idea what we're talking about and that anyone who says we do is lying. Chaitin actually thinks we may never get a unified theory since we may have only scratched the surface of the physical world. Anyway, as an empiricist and former engineer, I still say we can't dispose of everything in its entirety since engineers rely on things like Newton's laws every day. But when it comes to physics and figuring out how the universe works, we're simply projecting our view onto what we see. Sometimes that allows us to manipulate things (build cars, buildings, computers, etc.), but when it does we're simply getting lucky. I'll have to Google your name and look up your website.
Ian
report post as inappropriate
James Putnam replied on Apr. 14, 2010 @ 16:15 GMT
Dear Ian,
Thank you for your message. I am reposting part of a message I wrote today to Jason, because, I think it is relevant to your topic. That is, unless I am wrong in the example I give below:
....I think its too early to judge who has the truth. I think relativity theory is clearly wrong. I think many other ideas carried along by theoretical physics are also wrong. Why should...
view entire post
Dear Ian,
Thank you for your message. I am reposting part of a message I wrote today to Jason, because, I think it is relevant to your topic. That is, unless I am wrong in the example I give below:
....I think its too early to judge who has the truth. I think relativity theory is clearly wrong. I think many other ideas carried along by theoretical physics are also wrong. Why should anyone care what I think? My conclusions will certainly not win any respect by themselves. There is only one place for me to participate and that is at the fundamental level. That is where the changes, as I see them, must begin to be made. I think it is the only place where I have any chance of scoring points. So, I mentioned elsewhere, in another message, the idea that defining mass in f=ma as being a unique fundamental property requiring its own unique indefinable units of measurement was a guess, and, I add now that it was a wrong guess.
Why should anyone care? The equation f=ma is long established newtonian physics. It is very successful up to the point where Einstein's theory corrects it. The success of the two of them together make the original theoretical interpretation of f=ma appear to be truth. That is a very big hill for any challenger to climb.
You (Jason) said: "In an earlier entry, I asked: what causes gravity? I still think the question deserves an answer."
I missed seeing this. I have looked back and could not find a previous message where you asked about the cause of gravity. But, now to my point for bringing this up now. The answer, as I see it, to the cause of gravity lies in reinterpreting mass in f=ma. Mass should not have indefinable units of measurement. It should have units of some combination of distance and time. When this change is made, then a possible answer for what causes gravity appears immediately. Again, why should anyone care about this viewpoint? If we mess around with mass then almost everything will change. Why change that which has worked so wonderfully well in practice?
I will offer a possible reason. The universal gravitational constant is equal in magnitude to a physical event. Consider two ideal, simple protons at a distance of separation equal to the radius of the hydrogen atom. I am using protons instead of neutrons because I want to avoid getting into a discussion about the nature of neutrons. Completely disregard electric effects. I am speaking only about gravitational effects.
An observer on one of the protons believes himself to be stationary. He sees the other proton approaching his proton due to the force of gravity. I will refer to this as the local acceleration of gravity. Now the point: The magnitude of the fundamental gravitational constant is equal in magnitude to the square of the local acceleration due to gravity of one proton toward the observer's proton multiplied by the square of the distance between them at the instant that that distance is equal to the radius of the hydrogen atom.
I have to refer only to the magnitudes because, the units do not match. Now I refer anyone interested back to my point regarding f=ma. If the units of mass are corrected back at the beginning of theory, then the units in the above conclusion match and I do not have to refer only to their magnitudes.
James
view post as summary
report post as inappropriate
hide replies