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| Tags: genius, relativity |
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#1
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Below is Randy Poe's attempt to handle a coordinate system
which the imbecile Dirk Van de moortel says I do not understand. Randy Poe: I'm going to take another tack, one which may dispense with all this endless origin silliness. The kind of argument that could result from trying to introduce and then solve Einstein's differential equation could keep us here till the heat death of the universe. Let's look at the transit time of the light signals. Now, from the point of view of S, the emitter and mirror are some distance d apart. The light signal leaves the emitter at x1, at time t1. It is traveling toward the mirror at speed c, but at the same time the mirror is receding at speed v. So from the point of view of the S observer, the transmit time from emitter to mirror is d/(c-v). Which means t2 = t1 + d/(c-v). On the return trip, the light signal is coming back at c and the apparatus at the back of the truck is rushing to meet it at speed v. They converge at a rate of c+v, and the transit time is d/(c+v). Which means t3 = t1 + d/(c-v) + d/(c+v) t3 = t1 + d/(c-v) + d/(c+v)= t1 + d*[1/(c-v) + 1/(c+v)]= t1 + d*[(c+v)/(c^2-v^2) + (c-v)/(c^2-v^2)]= t1 + d*[(c + v + c - v)/(c^2 - v^2)]= t1 + d*[2c/(c^2 - v^2)]Or t3-t1 = d*[2c/(c^2-v^2)] - Randy In Einstein's and Poe's world. _____________________ _ [Poe's Trucking Inc.] [ \_ [___________________]_[___| t1 | oo oo o |--------d-------| | | __________________________ _ [ Poe's Trucking Inc. ] [ \_ [________________________]_[___| t2 | oo oo o |-----------d----------| | | | | | | ________________________________ __ [ Poe's Trucking Inc.] [ \_ [______________________________]_[____| t3 | oo oo o |-------------d--------------| | | | | | (x1,t1) (x2,t2) (x1,t3) In Einstein's coordinate system: ½[tau(0,0,0,t)+tau(0,0,0,t+x'/(c-v)+x'/(c+v))] = tau(x',0,0,t+x'/(c-v)) In Poe's coordinate system: ½[tau(x1,t+t1)+tau(x1,t+(d-vt)/(c-v)+(d-vt)/(c+v))] = tau(x2,t+(d-vt)/(c-v)) In the real world: _____________________ _ [ Androcles' Artic ] [ \ [___________________]_[__| t1 | ooo oo o |--------d-------| | | | _____________________ _ | [ Androcles' Artic ] [ \ | [___________________]_[__| t2 | ooo oo o | |--------d--------| | | | | | | | _____________________ _ | [ Androcles' Artic ] [ \ | [___________________]_[__| t3 | ooo oo o | |--------d--------| | | | |v(t3-t1)| | | | | (x1,t1) (x3,t3) (x2,t2) it so quite obvious, from inspection, that neither Poe not moortel know what a coodinate system is. I have agree with Poe that his endless origin silliness is just that: silliness. The only thing the reader need decide is just who is being silly. Androcles. |
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#2
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Androcles wrote:
Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. Androcles doesn't have a very good track record. http://www.google.com/search?q=Andro...ers.pandora.be |
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#3
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Androcles wrote: Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. Randy Poe: I'm going to take another tack, one which may dispense with all this endless origin silliness. The kind of argument that could result from trying to introduce and then solve Einstein's differential equation could keep us here till the heat death of the universe. Let's look at the transit time of the light signals. Now, from the point of view of S, the emitter and mirror are some distance d apart. The light signal leaves the emitter at x1, at time t1. It is traveling toward the mirror at speed c, but at the same time the mirror is receding at speed v. So from the point of view of the S observer, the transmit time from emitter to mirror is d/(c-v). Which means t2 = t1 + d/(c-v). On the return trip, the light signal is coming back at c and the apparatus at the back of the truck is rushing to meet it at speed v. They converge at a rate of c+v, and the transit time is d/(c+v). Which means t3 = t1 + d/(c-v) + d/(c+v) t3 = t1 + d/(c-v) + d/(c+v)= t1 + d*[1/(c-v) + 1/(c+v)]= t1 + d*[(c+v)/(c^2-v^2) + (c-v)/(c^2-v^2)]= t1 + d*[(c + v + c - v)/(c^2 - v^2)]= t1 + d*[2c/(c^2 - v^2)]Or t3-t1 = d*[2c/(c^2-v^2)] - Randy In Einstein's and Poe's world. _____________________ _ [Poe's Trucking Inc.] [ \_ [___________________]_[___| t1 | oo oo o |--------d-------| | | __________________________ _ [ Poe's Trucking Inc. ] [ \_ [________________________]_[___| t2 | oo oo o |-----------d----------| Why don't you amplify how this follows from my definitions. In Einstein's coordinate system: ½[tau(0,0,0,t)+tau(0,0,0,t+x'/(c-v)+x'/(c+v))] = tau(x',0,0,t+x'/(c-v)) What is the meaning of the first argument in the parenthesis tau(*,*,*,*)? In Poe's coordinate system: ½[tau(x1,t+t1)+tau(x1,t+(d-vt)/(c-v)+(d-vt)/(c+v))] = tau(x2,t+(d-vt)/(c-v)) Really? What are the meaning of the two arguments in tau(*,*) in what is supposedly my coordinate system and my definition of tau? You're aware that the notation tau(*,*) or tau(*,*,*,*) indicates a function of 2 or 4 variables, right? What are those variables in the two equations you wrote? - Randy |
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#4
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Androcles wrote:
Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. Randy Poe: I'm going to take another tack, one which may dispense with all this endless origin silliness. The kind of argument that could result from trying to introduce and then solve Einstein's differential equation could keep us here till the heat death of the universe. Let's look at the transit time of the light signals. Now, from the point of view of S, the emitter and mirror are some distance d apart. The light signal leaves the emitter at x1, at time t1. It is traveling toward the mirror at speed c, but at the same time the mirror is receding at speed v. So from the point of view of the S observer, the transmit time from emitter to mirror is d/(c-v). Which means t2 = t1 + d/(c-v). On the return trip, the light signal is coming back at c and the apparatus at the back of the truck is rushing to meet it at speed v. They converge at a rate of c+v, and the transit time is d/(c+v). Which means t3 = t1 + d/(c-v) + d/(c+v) t3 = t1 + d/(c-v) + d/(c+v)= t1 + d*[1/(c-v) + 1/(c+v)]= t1 + d*[(c+v)/(c^2-v^2) + (c-v)/(c^2-v^2)]= t1 + d*[(c + v + c - v)/(c^2 - v^2)]= t1 + d*[2c/(c^2 - v^2)]Or t3-t1 = d*[2c/(c^2-v^2)] - Randy In Einstein's and Poe's world. _____________________ _ [Poe's Trucking Inc.] [ \_ [___________________]_[___| t1 | oo oo o |--------d-------| | | __________________________ _ [ Poe's Trucking Inc. ] [ \_ [________________________]_[___| t2 | oo oo o |-----------d----------| | | | | | | ________________________________ __ [ Poe's Trucking Inc.] [ \_ [______________________________]_[____| t3 | oo oo o |-------------d--------------| | | | | | (x1,t1) (x2,t2) (x1,t3) In Einstein's coordinate system: ½[tau(0,0,0,t)+tau(0,0,0,t+x'/(c-v)+x'/(c+v))] = tau(x',0,0,t+x'/(c-v)) In Poe's coordinate system: ½[tau(x1,t+t1)+tau(x1,t+(d-vt)/(c-v)+(d-vt)/(c+v))] = tau(x2,t+(d-vt)/(c-v)) In the real world: _____________________ _ [ Androcles' Artic ] [ \ [___________________]_[__| t1 | ooo oo o |--------d-------| | | | _____________________ _ | [ Androcles' Artic ] [ \ | [___________________]_[__| t2 | ooo oo o | |--------d--------| | | | | | | | _____________________ _ | [ Androcles' Artic ] [ \ | [___________________]_[__| t3 | ooo oo o | |--------d--------| | | | |v(t3-t1)| | | | | (x1,t1) (x3,t3) (x2,t2) it so quite obvious, from inspection, that neither Poe not moortel know what a coodinate system is. I have agree with Poe that his endless origin silliness is just that: silliness. The only thing the reader need decide is just who is being silly. You. You demonstrated that nicely above by (yet again) creating silly straw men and understanding a single word of the actual argument. Bye, Bjoern |
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#5
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"Randy Poe" wrote in message oups.com... Androcles wrote: Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. Randy Poe: I'm going to take another tack, one which may dispense with all this endless origin silliness. The kind of argument that could result from trying to introduce and then solve Einstein's differential equation could keep us here till the heat death of the universe. Let's look at the transit time of the light signals. Now, from the point of view of S, the emitter and mirror are some distance d apart. d1 = (c+v)t. d2 = (c-v)t. d = d1 = d2. (c+v)t = (c-v)t. dividing by t, (c+v) = (c-v) Subracting c, v = -v. Adding v, 2v = 0 dividing by 2, v = 0/2 Done looking. Left in for the shame of it: The light signal leaves the emitter at x1, at time t1. It is traveling toward the mirror at speed c, but at the same time the mirror is receding at speed v. So from the point of view of the S observer, the transmit time from emitter to mirror is d/(c-v). Which means t2 = t1 + d/(c-v). On the return trip, the light signal is coming back at c and the apparatus at the back of the truck is rushing to meet it at speed v. They converge at a rate of c+v, and the transit time is d/(c+v). Which means t3 = t1 + d/(c-v) + d/(c+v) t3 = t1 + d/(c-v) + d/(c+v)= t1 + d*[1/(c-v) + 1/(c+v)]= t1 + d*[(c+v)/(c^2-v^2) + (c-v)/(c^2-v^2)]= t1 + d*[(c + v + c - v)/(c^2 - v^2)]= t1 + d*[2c/(c^2 - v^2)]Or t3-t1 = d*[2c/(c^2-v^2)] - Randy LOL! In Einstein's and Poe's world. _____________________ _ [Poe's Trucking Inc.] [ \_ [___________________]_[___| t1 | oo oo o |--------d-------| | | __________________________ _ [ Poe's Trucking Inc. ] [ \_ [________________________]_[___| t2 | oo oo o |-----------d----------| Why don't you amplify how this follows from my definitions. In Einstein's coordinate system: ½[tau(0,0,0,t)+tau(0,0,0,t+x'/(c-v)+x'/(c+v))] = tau(x',0,0,t+x'/(c-v)) What is the meaning of the first argument in the parenthesis tau(*,*,*,*)? x1 of course. In Poe's coordinate system: ½[tau(x1,t+t1)+tau(x1,t+(d-vt)/(c-v)+(d-vt)/(c+v))] = tau(x2,t+(d-vt)/(c-v)) Really? What are the meaning of the two arguments in tau(*,*) in what is supposedly my coordinate system and my definition of tau? You're aware that the notation tau(*,*) or tau(*,*,*,*) indicates a function of 2 or 4 variables, right? Sure, but the y and z coordinates are added by Einstein to confuse you. What are those variables in the two equations you wrote? Yours, of course. LOL! Androcles. - Randy |
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#6
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Androcles, you seem to have the attributions totally screwed
up. Since Randy's post do not appear here (is this a private mail discussion, or what?), it is almost impossible to find out who said what. Androcles wrote: "Randy Poe" wrote in message oups.com... Androcles wrote: Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. Randy Poe: I'm going to take another tack, one which may dispense with all this endless origin silliness. The kind of argument that could result from trying to introduce and then solve Einstein's differential equation could keep us here till the heat death of the universe. Let's look at the transit time of the light signals. Now, from the point of view of S, the emitter and mirror are some distance d apart. d1 = (c+v)t. d2 = (c-v)t. d = d1 = d2. What are d1 and d2, and why should they be equal to each other and d? [snip] Left in for the shame of it: The light signal leaves the emitter at x1, at time t1. It is traveling toward the mirror at speed c, but at the same time the mirror is receding at speed v. So from the point of view of the S observer, the transmit time from emitter to mirror is d/(c-v). Which means t2 = t1 + d/(c-v). On the return trip, the light signal is coming back at c and the apparatus at the back of the truck is rushing to meet it at speed v. They converge at a rate of c+v, and the transit time is d/(c+v). Which means t3 = t1 + d/(c-v) + d/(c+v) t3 = t1 + d/(c-v) + d/(c+v)= t1 + d*[1/(c-v) + 1/(c+v)]= t1 + d*[(c+v)/(c^2-v^2) + (c-v)/(c^2-v^2)]= t1 + d*[(c + v + c - v)/(c^2 - v^2)]= t1 + d*[2c/(c^2 - v^2)]Or t3-t1 = d*[2c/(c^2-v^2)] - Randy LOL! Read: "I did not understand a word, so I'll simply ridicule it." [snip] Bye, Bjoern |
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#7
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Androcles wrote: "Randy Poe" wrote in message oups.com... Androcles wrote: Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. Randy Poe: I'm going to take another tack, one which may dispense with all this endless origin silliness. The kind of argument that could result from trying to introduce and then solve Einstein's differential equation could keep us here till the heat death of the universe. Let's look at the transit time of the light signals. Now, from the point of view of S, the emitter and mirror are some distance d apart. d1 = (c+v)t. What is the origin of this equation? I believe I wrote down this: x = x1 + d + v(t-t1) for the mirror and this: x = x1 + c(t-t1) for the light Where in all of what I wrote did I say anything like the above? d2 = (c-v)t. d = d1 = d2. I think we both agreed that in the S frame, the light travels more than d in the forward direction, and less than d in the reverse direction. So there is nothing like this statement. Done looking. But alas, what you looked at were your own nonsense equations rather than anything I wrote. Left in for the shame of it: The light signal leaves the emitter at x1, at time t1. It is traveling toward the mirror at speed c, but at the same time the mirror is receding at speed v. So from the point of view of the S observer, the transmit time from emitter to mirror is d/(c-v). Which means t2 = t1 + d/(c-v). On the return trip, the light signal is coming back at c and the apparatus at the back of the truck is rushing to meet it at speed v. They converge at a rate of c+v, and the transit time is d/(c+v). Which means t3 = t1 + d/(c-v) + d/(c+v) t3 = t1 + d/(c-v) + d/(c+v)= t1 + d*[1/(c-v) + 1/(c+v)]= t1 + d*[(c+v)/(c^2-v^2) + (c-v)/(c^2-v^2)]= t1 + d*[(c + v + c - v)/(c^2 - v^2)]= t1 + d*[2c/(c^2 - v^2)]Or t3-t1 = d*[2c/(c^2-v^2)] LOL! Please let me in on the joke. By the way, you realize that everything above is valid for sound waves too, right? In Einstein's and Poe's world. _____________________ _ [Poe's Trucking Inc.] [ \_ [___________________]_[___| t1 | oo oo o |--------d-------| | | __________________________ _ [ Poe's Trucking Inc. ] [ \_ [________________________]_[___| t2 | oo oo o |-----------d----------| Why don't you amplify how this follows from my definitions. Alas, explaining his own "deduction" process is not part of Androcles' game plan. In Einstein's coordinate system: ½[tau(0,0,0,t)+tau(0,0,0,t+x'/(c-v)+x'/(c+v))] = tau(x',0,0,t+x'/(c-v)) What is the meaning of the first argument in the parenthesis tau(*,*,*,*)? x1 of course. Not in Einstein's paper. Perhaps you should read the part where he defines the functional form of tau, and explains what the first variable is. (It isn't x). In Poe's coordinate system: ½[tau(x1,t+t1)+tau(x1,t+(d-vt)/(c-v)+(d-vt)/(c+v))] = tau(x2,t+(d-vt)/(c-v)) Really? What are the meaning of the two arguments in tau(*,*) in what is supposedly my coordinate system and my definition of tau? Unanswered. Surprise, surprise. You're aware that the notation tau(*,*) or tau(*,*,*,*) indicates a function of 2 or 4 variables, right? Sure, but the y and z coordinates are added by Einstein to confuse you. You got bored before he explained what happens with motion in general directions, not just x. What are those variables in the two equations you wrote? Which equations? - Randy |
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#8
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Androcles wrote:
Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. [snip] Dirk need not assert anything. You have empirically voluminously demonstrated to astounding public disgust that you are utterly clueless, wholly ineducable, and perseveratively psychotic in your delusions, http://www.apa.org/journals/psp/psp7761121.html http://insti.physics.sunysb.edu/~siegel/quack.html http://www.firehead.org/~jessh/film/kubrick/Kubrick-Psycho.html http://www.naturalchild.com/elliott_barker/prisons.html Hey stooopid - Special and General Relativity work to spec at all scales and in all venues without a single exception, heavy atoms to Einstein rings, http://relativity.livingreviews.org/Articles/lrr-2001-4/index.html http://relativity.livingreviews.org/Articles/lrr-2003-1/index.html http://hyperphysics.phy-astr.gsu.edu/hbase/relativ/airtim.html Science 303(5661) 1143;1153 (2004) http://arXiv.org/abs/astro-ph/0401086 http://arxiv.org/abs/astro-ph/0312071 http://relativity.livingreviews.org/Articles/lrr-2003-5/index.html Deeply relativistic neutron star binaries If you say they do not work you are an empirical idiot. -- Uncle Al http://www.mazepath.com/uncleal/ (Toxic URL! Unsafe for children and most mammals) http://www.mazepath.com/uncleal/qz.pdf |
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#9
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"Randy Poe" wrote in message ups.com... [snip for netiquette] Androcles |
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#10
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"Uncle Al" wrote in message ... Androcles wrote: Below is Randy Poe's attempt to handle a coordinate system which the imbecile Dirk Van de moortel says I do not understand. [snip] ****ing imbecile Schwartz never does read anything (he can't). Androcles. |
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