1 Sylvia Else | Einstein's RoS Exposed as Blatant Fake. | Saturday 29 July 2017 |
2 HGW... | Re :Einstein's RoS Exposed as Blatant Fake. | Sunday 30 July 2017 |
3 Sylvia Else | Re :Einstein's RoS Exposed as Blatant Fake. | Monday 31 July 2017 |
4 Gary Harnagel | Re :Einstein's RoS Exposed as Blatant Fake. | Wednesday 2 August 2017 |
5 Nicolaas Vroom | Re :Einstein's RoS Exposed as Blatant Fake. | Wednesday 2 August 2017 |
6 Nicolaas Vroom | Re :Einstein's RoS Exposed as Blatant Fake. | Wednesday 2 August 2017 |
7 HGW... | Re :Einstein's RoS Exposed as Blatant Fake. | Wednesday 2 August 2017 |
8 Sylvia Else | Re :Einstein's RoS Exposed as Blatant Fake. | Wednesday 2 August 2017 |
9 Sylvia Else | Re :Einstein's RoS Exposed as Blatant Fake. | Wednesday 2 August 2017 |
10 Nicolaas Vroom | Re :Einstein's RoS Exposed as Blatant Fake. | Thursday 3 August 2017 |
11 Gary Harnagel | Re :Einstein's RoS Exposed as Blatant Fake. | Thursday 3 August 2017 |
12 Nicolaas Vroom | Re :Einstein's RoS Exposed as Blatant Fake. | Thursday 3 August 2017 |
13 Robert Winn | Re :Einstein's RoS Exposed as Blatant Fake. | Thursday 3 August 2017 |
14 Sylvia Else | Re :Einstein's RoS Exposed as Blatant Fake. | Friday 4 August 2017 |
15 HGW... | Re :Einstein's RoS Exposed as Blatant Fake. | Friday 4 August 2017 |
16 tjrob137 | Re :Einstein's RoS Exposed as Blatant Fake. | Friday 4 August 2017 |
17 Nicolaas Vroom | Re :Einstein's RoS Exposed as Blatant Fake. | Saturday 5 August 2017 |
18 HGW... | Re :Einstein's RoS Exposed as Blatant Fake. | Sunday 6 August 2017 |
19 Gary Harnagel | Re :Einstein's RoS Exposed as Blatant Fake. | Sunday 6 August 2017 |
20 Nicolaas Vroom | Re :Einstein's RoS Exposed as Blatant Fake. | Sunday 6 August 2017 |
21 Gary Harnagel | Re :Einstein's RoS Exposed as Blatant Fake. | Sunday 6 August 2017 |
22 kenseto | Re :Einstein's RoS Exposed as Blatant Fake. | Sunday 6 August 2017 |
23 HGW... | Re :Einstein's RoS Exposed as Blatant Fake. | Monday 7 August 2017 |
24 HGW... | Re :Einstein's RoS Exposed as Blatant Fake. | Monday 7 August 2017 |
25 Gary Harnagel | Re :Einstein's RoS Exposed as Blatant Fake. | Monday 7 August 2017 |
26 Gary Harnagel | Re :Einstein's RoS Exposed as Blatant Fake. | Monday 7 August 2017 |
Einstein's RoS Exposed as Blatant Fake.
210 posts by 26 authors
https://groups.google.com/forum/?fromgroups=#!topic/sci.physics.relativity/Xh7qsQiCLXc[151-175
> | On Friday, July 28, 2017 at 6:07:11 PM UTC-7, Sylvia Else wrote: |
>> | On 28/07/2017 11:16 PM, Robert Winn wrote: |
>>> | On Friday, July 28, 2017 at 4:39:49 AM UTC-7, Sylvia Else wrote: |
>>>> | On 28/07/2017 9:06 PM, Robert Winn wrote: |
>>>>> | On Thursday, July 27, 2017 at 7:03:47 PM UTC-7, Sylvia Else wrote: |
>>>>>> | On 28/07/2017 10:31 AM, Robert Winn wrote: |
>>>>>>> | On Thursday, July 27, 2017 at 4:32:40 PM UTC-7, Sylvia Else wrote: |
>>>>>>>> | On 27/07/2017 11:23 PM, Robert Winn wrote: |
>>>>>>>>> | On Wednesday, July 26, 2017 at 6:31:55 PM UTC-7, Sylvia Else wrote: |
>>>>>>>>>> | On 26/07/2017 11:41 PM, Robert Winn wrote: |
>>>>>>>>>>> | On Tuesday, July 25, 2017 at 8:28:26 PM UTC-7, Sylvia Else wrote: |
>>>>>>>>>>>> | On 24/07/2017 1:25 PM, Robert Winn wrote: |
>>>>>>>>>>>>> | On Sunday, July 23, 2017 at 7:14:51 PM UTC-7, HGW... wrote: |
>>>>>>>>>>>>>> | On 23/07/17 16:55, Sylvia Else wrote: |
>>>>>>>>>>>>>>> | On 22/07/2017 11:24 PM, Robert Winn wrote: |
>>>>>>>>>>>>>> |
>>>>>>>>>>>>>>>>> |
You'll still be wrong. Sylvia. |
>>>>>>>>>>>>>>>> |
No, I am not wrong, and I do not ignore a century of research. I just do the mathematics correctly. Einstein's revolutionary idea was that there was a "time dilation", in other words, a slower clock in S', the frame of reference in motion. Scientists tested his idea and found that clocks did slow down when placed in motion. Then they experimented some more and found that clocks speeded up if subjected to less gravitation. So they concluded that Isaac Newton was wrong, and clocks that were working correctly did not all agree with one another as Newton believed in his absolute time interpretation of the Galilean transformation equations. The Galilean transformation equations were thrown into the trash. |
>>>>>>>>>>>>>>> |
Einstein showed what the equations have to be if the laws of physics are to be the same in all inertial frames. Your equations don't satisfy that requirement. |
>>>>>>>>>>>>>> |
Why are dingleberries so plainly dumb? The fact that the laws of physics are the same does not mean the parameter VALUES have to be the same. |
>>>>>>>>>>>>>>> |
Sylvia. |
>>>>>>>>>>>>>> |
-- |
>>>>>>>>>>>>> |
Oh, well, I did not know. Scientists just seem to make up whatever rules they think they need to have as they go along. I like Galileo, though. He was right about the earth rotating on its axis. |
>>>>>>>>>>>> |
Scientists try to discover what the rules are. It's not always at all obvious, and sometimes the rules turn out to be highly counter-intuitive. The preamble to Einsteins paper "On the Electrodynamics of Moving Bodies" shows why he was motivated to postulate that the laws of physics should be the same for all inertial observers and that only relative motions matter. Experiments already indicated that the speed of light was constant (which would have to be true for the postulate to stand). Einstein then shows that the postulate unavoidably leads to the Lorentz transformation. So the Lorentz transformation is the rule if the laws of physics are the same for all inertial observers. It is not "made up", but is deduced by applying mathematics to the postulate. You may not like it, but the only way to avoid it is to show that the postulate is wrong. Sylvia. |
>>>>>>>>>>> |
I already did, which you ignored. So I will demonstrate again. Suppose we have a railroad car in motion. We drop a ball from the top of the railroad car to the floor. We time the descent of the ball using two clocks, one inside the railroad car and one on the ground beside the railroad track. Einstein says that the clock in the railroad car is slower than the clock on the ground. So, according to the clock in the railroad car, the ball is falling faster than it is according to the clock on the ground. So go ahead and wave your hands again. Say some meaningless scientific jargon. The fact remains that according to Einstein's mathematics, the law of gravitation is not the same in the moving railroad car as it is on the ground. So all of the laws of physics are not the same in the two frames of reference. That is just the way it is. |
>>>>>>>>>> |
The key to this is the word "inertial". Apparently you don't know what it means, because the clocks in your thought experiment are manifestly NOT in inertial frames since they're sitting in a gravitational field. The requirement that the laws of physics be the same was expressly restricted to inertial frames, and does not apply to the clocks in your thought experiment. Sylvia. |
>>>>>>>>> |
Einstein used trains in his thought experiments all the time, and no one objected. I could have just said two frames of reference S and S', so let's do that. There is a frame of reference S at rest and a frame of reference S' in motion in the +x direction. A clock in S' is slower than a clock in S. A ball is accelerating in the -y direction in S at 32 feet per second per second. If the clock in S' is slower, is it also accelerating at 32 feet per second per second in S'? See, that was not so difficult, was it? |
>>>>>>>> |
You've eliminated gravity from the scenario, so now your observers are inertial, but you've also eliminated the law of physics that is required to be the same for both observers, so your thought experiment serves no purpose. Sylvia. |
>>>>>>> |
What do you mean it serves no purpose? A ball is falling at 32 feet per second per second in S. It is falling faster in S'. The equations that give us that result are: y'=y t' = (t-vx/c^2)/sqrt(1-v^2/c^2) A clock in S' MEASURES less time than a clock in S, as Gary Harnagel would say. Einstein said that the Lorentz equations describe a gravitationless system. Well, but if something is moving in the -y direction, then we can say there must be a reason. The Lorentz equations give two speeds for something moving in that direction, one in S and one in S'. So how do you explain it? |
>>>>>> |
If you look back up the post a bit, you'll see that the issue is whether the laws of physics are the same for all inertial frames. So before you can advance your position, you have to identify the law of physics that you claim is different in the two frames. There is no law of physics that says that accelerations are frame independent, and indeed they are not. Sylvia. |
>>>>> |
So you are saying that gravitation is not a law of physics. |
>>>> |
No, I'm not saying that, but you're conflating gravitation and acceleration, most likely because you don't know what the physical law of gravitation actually says. When you're read up on that, you might get closer to proposing a thought experiment that at least makes some sense, though it still won't support your contention. Sylvia. |
>>> |
Well, OK, so you do not want to discuss gravitation. |
>> |
I don't know how you reach that idea from what I said. |
>>> |
That was what I thought. There was a time when scientists were willing to discuss that particular subject. Isaac Newton wrote books about it. The physical law of gravitation actually says that if you put a baseball in orbit around the earth at the altitude of the moon, the baseball will have the same speed in its orbit that the moon has. |
>> |
That is one outcome, but it's not what the law is, and it doesn't have any relevance to your thought experiment. |
>>> |
So how does that relate to modern science? It doesn't because the baseball would have different velocities depending on what frame of reference the velocities were calculated from. |
>> |
So would the moon. In any frame the baseball and the moon would have the same speed. |
>>> |
Newton's idea was that the moon was falling toward the earth at exactly the velocity that would offset the centripetal force of the moon in its orbit. To find the force of gravitation, all he had to do was find an equation that would work for the moon and a baseball. Modern scientists cannot do that because velocity, acceleration, gravitation, etc., are not physical laws if they do not agree with the propaganda scientists are using at this particular time. At any rate, here are the correct equations for relativity. x'=x-vt y'=y z'=z t'=t Since scientists threw these equations in the garbage 140 years ago, this conversation is probably over. |
>> |
It's apparent that you really have no idea what the law of gravitation says, and this bluster is your attempt get round the fact that you thought you'd spotted an issue with relativity and were arrogant enough to suppose that it had somehow been overlooked by great minds for over a century. Sylvia. |
> |
The minds you call great do not overlook things. They just evaluate things and put them into categories. As far as scientists of today are concerned, the category that interests them is the category from which they obtain the most money from governments for what they call "research". Obviously, equations that scientists threw away 140 years ago are not going to be in the category that interests them. |
I take it you've abandoned this claim
"The fact remains that according to Einstein's mathematics, the law of gravitation is not the same in the moving railroad car as it is on the ground. So all of the laws of physics are not the same in the two frames of reference. That is just the way it is."
in favour of a general rant.
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] Now, you might expect the balls to land on the respective train floors simultaneously. Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events.
If I were a relativity denier, I'd now be going on about how the situation is symmetrical (which it is), and how I'd found a huge contradiction in special relativity (which I haven't).
Over to you.
Sylvia.
[*] I was toying with you earlier - while the observers are not inertial, they don't move up or down in the gravitational field, so gravity doesn't matter for this purpose.
> | On 29/07/2017 3:48 PM, Robert Winn wrote: |
> |
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] Now, you might expect the balls to land on the respective train floors simultaneously. Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events. |
Simultaneity has nothing to do with light or what separated people might 'see'. If the two balls were dropped simultaneously by means of a mechanical system, the two events can be assumed to be simultaneous in all frames, even though they wont appear to be because of information's finite travel time. That should be obvious....
> |
If I were a relativity denier, I'd now be going on about how the
situation is symmetrical (which it is), and how I'd found a huge
contradiction in special relativity (which I haven't).
Over to you. Sylvia. [*] I was toying with you earlier - while the observers are not inertial, they don't move up or down in the gravitational field, so gravity doesn't matter for this purpose. |
What a lying confused hypocrite you are. Next you will be telling us that GPS clocks WHICH ARE NOT INERTIAL and muons in a ring WHICH ARE NOT INERTIAL all obey Einstein's shitty theory.
> | On Sunday, July 30, 2017 at 12:28:33 AM UTC-7, Sylvia Else wrote: |
>> | On 30/07/2017 4:46 PM, Robert Winn wrote: |
>>> | On Saturday, July 29, 2017 at 7:26:44 PM UTC-7, Sylvia Else wrote: |
>>>> | On 29/07/2017 11:02 PM, Robert Winn wrote: |
>>>>> | On Friday, July 28, 2017 at 11:11:02 PM UTC-7, Sylvia Else wrote: |
>>>>>> | On 29/07/2017 3:48 PM, Robert Winn wrote: |
>>>>>>> | On Friday, July 28, 2017 at 6:07:11 PM UTC-7, Sylvia Else wrote: |
>>>>>>>> | On 28/07/2017 11:16 PM, Robert Winn wrote: |
>>>>>>>>> | On Friday, July 28, 2017 at 4:39:49 AM UTC-7, |
>>>>> | Well, I was not toying with you. I discussed this with a university professor years ago. There is no contradiction. What you people in science are doing is using two different rates of time in the same set of Galilean transformation equations. |
>>>> |
What happens when you do that is that you end up with a length
contraction.
Really - you see no contradiction in the scenario as I've described it? It's totally symmetrical yet if the balls land simultaneously for one observer, they cannot possibly land simultaneously for the other, so the two observers cannot possibly see the same outcome. No amount of fudging with the definition of the second or hand waving about length contraction will address that. The resolution, of course, is quite obvious, but despite your claimed expertise, you're blind to it. Sylvia. |
>>> |
The two observers cannot possibly see anything but the same outcome. A clock in S' is slower than a clock in S no matter which observer is measuring the times of the clocks. That is what the Galilean transformation equations show. If two events are simultaneous in one frame of reference, they are simultaneous in the other. That is what the Galilean transformation equations show. Did I mention that the Galilean transformation equations are the correct equations to describe relativity? |
>> |
Your proposition makes no sense - how are you to decide which is S and which is S'? Does your arbitrary choice somehow manage to have a real effect on the clocks? Sylvia. |
> |
Well, for purposes of this discussion, I said that S' was the frame of reference with the slower clock. Einstein was the first one to make that stipulation. Now a scientist such as yourself would immediately argue, but from S', the clock in S is slower. That is not what the Galilean transformation equations show. In the Galilean transformation equations, the slow clock is where it was originally said to be, in S'. So go ahead and show your proof that the Galilean transformation equations are wrong. |
If we had two trains running in opposite directions, at the same speed, relative to our initial observer (in S). Let them be S' and S''. So the clocks in S' and S'' have to be running at the same slower rate.
So now let them measure the speed of a ray of light running from top to bottom and back again in S'. They have to conclude that it takes the same time, but in S'' the ray travels a larger distance. Thus they reach different conclusions about the speed of the ray. This is inconsistent with the experimental results that say the speed of a ray of light is the same for all observers.
The problem with your theory is that it gives the wrong answers.
Sylvia.
> |
On 01/08/17 20:48, Gary Harnagel wrote: |
> > |
On Saturday, July 29, 2017 at 5:15:55 PM UTC-6, HGW... wrote: |
> > > > |
And non-simultaneity has been MEASURED, stupid ignorant lying weasel. |
> > > |
Please tell us when it was measured, poor god fearing moron..... |
> > |
The GPS, stupid ignorant dishonest atheist. |
> |
Oh really! Tell me precisely how GPS measures simultaneity.... |
Lying ignorant corrupt weasel, I said NON-simultaneity. You are such a corrupt piece of work! Time dilation is a consequence of non-simultaneity, and the GPS experience refutes your abysmally-asinine absolute time, thus non-simultaneity is confirmed and DirtyBaThWater is refuted.
> > > > | So where does that leave your abysmally-stupid DirtyBaThWater? In the wormhole. Of course a dishonest liar like you would deny all the evidence. That's because you are a delusional dishonest atheist. |
> > > |
Have you found any of those under your bed lately? |
> > |
Anyone claiming to be an atheist is either dishonest or ignorant. |
> |
..or someone who get under widdle gawy's bed.... |
So you ARE under my bed. PERVERT!
> > > > | “To hate being wrong is to change your opinion when you are proven wrong; whereas pride, even when proven wrong, decides to go on being wrong.” ? Criss Jami |
> > > |
So where does that leave you after you read this: www.scisite.info/ros.html |
> > |
Why would I read ANYTHING written by a dishonst ignoramus who photoshopped his diploma? |
> |
OK. I'll come clean. I admit I DID borrow the late Rabbo's degree and diploma and alter his name to mine. I did that because mine, which were actually the same, were lost in a fire. |
Sure, we all believe you because we know that you are completely honest ... NOT!
> > > > | Does your sentence make any sense to ANYONE? |
> > > |
'it' typo poor idiot. Using typos to avoid answering difficult questions is the poorest form of debate. |
> > |
Blaming a typo to avoid explaining what the typo was supposed to be is even poorer than the poorest. |
> |
why don't you shuddup! |
Make me, you miserable excuse for a human being.
> | On 29/07/17 16:10, Sylvia Else wrote: |
> > | On 29/07/2017 3:48 PM, Robert Winn wrote: |
> |
> > |
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] |
I assume there is a third observer P at rest. As such there are three frames S, S' and S'' This is a very tricky example because in each of the frames S, S' and S'' the train, the observer and the ball have the same speed i.e. 0, +v and -v.
> > | Now, you might expect the balls to land on the respective train floors simultaneously. |
> > | Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events. |
Make the example simpler. Forget the falling balls.
Consider an observer P at rest on a platform near a track.
Al of a sudden lightning strikes (hits) the track at equal distances
twice left and right from the observer. This leaves two marks.
The observer sees both hits simultaneous and observer P declares
them as (are) two simultaneous events.
At the same time when the lightning strikes, a train passes, going
towards the right, with observer P' exactly at the same position
as observer P. Observer P', going towards the right, observes the
right hit before the left one i.e. observer P' does not see the two
hits simultaneous. Observer P'', going towards the left,
observes the opposite (left before the right)
Now we modify this experiment. Place a light source between two mirrors. This source emits one flash, which will be reflected against the two mirrors (this are the two simultaneous events). The observer P (at rest) will observe both reflections at the same time. Now we perform the same experiment in each in two moving trains. Observer P' will claim that in his case the two events are simultaneous. Observer P'' will claim the same. Who is correct? P, P', P'' or P'''?
> | Simultaneity has nothing to do with light or what separated people might 'see'. If the two balls were dropped simultaneously by means of a mechanical system, the two events can be assumed to be simultaneous in all frames, even though they wont appear to be because of information's finite travel time. That should be obvious.... |
How important are the experiments discussed above using lightsignals when I want to understand the laws that describe the movement of the planets in the solar system or the stars in our galaxy. IMO not because these laws are not based on photons, but on forces, gravitational fields and gravitons. You need light to make your initial and final observations, but not inbetween. The best way to unravel these laws is to use only one reference frame.
> | What a lying confused hypocrite you are. Next you will be telling us that GPS clocks WHICH ARE NOT INERTIAL and muons in a ring WHICH ARE NOT INERTIAL all obey Einstein's shitty theory. |
Science is an art which progresses in small steps with respect and regard for all participants.
Nicolaas Vroom
> | On 31/07/2017 12:00 AM, Robert Winn wrote: |
> > | Well, for purposes of this discussion, I said that S' was the frame of reference with the slower clock. Einstein was the first one to make that stipulation. Now a scientist such as yourself would immediately argue, but from S', the clock in S is slower. That is not what the Galilean transformation equations show. In the Galilean transformation equations, the slow clock is where it was originally said to be, in S'. So go ahead and show your proof that the Galilean transformation equations are wrong. |
> |
If we had two trains running in opposite directions, at the same speed, relative to our initial observer (in S). Let them be S' and S''. So the clocks in S' and S'' have to be running at the same slower rate. |
This in in essence the same as this experiment:
"Place a light source between two mirrors.
This source emits one flash, which will be reflected
against the two mirrors (this are the two simultaneous events). The
observer P (at rest) will observe both reflections at the same time.
Now we perform the same experiment in each in two moving trains.
Observer P' will claim that in his case the two events are simultaneous.
Observer P'' will claim the same."
When observer P sees the two reflections this defines one tick of a clock.
The same for observer P' and P''. For a mathematical description see:
https://www.nicvroom.be/wik_Time_dilation.htm#ref1
> | So now let them measure the speed of a ray of light running from top to bottom and back again in S'. |
This is a very tricky excersice. How do you want to measure this speed? We already know that a clock in S' runs slower than a clock in S, based on the concept that the speed of light is everywhere the same.
> | They have to conclude that it takes the same time, but in S'' the ray travels a larger distance. Thus they reach different conclusions about the speed of the ray. This is inconsistent with the experimental results that say the speed of a ray of light is the same for all observers. |
This is the same as the previous question I raised:
Who is correct? P, P', P'' or P'''?
Nicolaas Vroom
> | On Tuesday, August 1, 2017 at 4:27:28 PM UTC-6, HGW... wrote: |
>>>>> | And non-simultaneity has been MEASURED, stupid ignorant lying weasel. |
>>>> |
Please tell us when it was measured, poor god fearing moron..... |
>>> |
The GPS, stupid ignorant dishonest atheist. |
>> |
Oh really! Tell me precisely how GPS measures simultaneity.... |
> |
Lying ignorant corrupt weasel, I said NON-simultaneity. You are such a corrupt piece of work! Time dilation is a consequence of non-simultaneity, and the GPS experience refutes your abysmally-asinine absolute time, thus non-simultaneity is confirmed and DirtyBaThWater is refuted. |
Now this is getting really interesting. widdle gawy can measure non-things...Maybe he uses a non-clock to measure non-time and a non-ruler to measure non-lengths. I wonder if he is actually a non-person. do you drive a non-car, widdle gawy?
> | On Monday, 31 July 2017 03:19:53 UTC+2, Sylvia Else wrote: |
>> | They have to conclude that it takes the same time, but in S'' the ray travels a larger distance. Thus they reach different conclusions about the speed of the ray. This is inconsistent with the experimental results that say the speed of a ray of light is the same for all observers. |
> |
I do not think that this is the result of an experiment but a postulate.
You have a point in the sense (if that is what you mean), that from the
point of view of S' the clocks in both S and S'' are running slow.
(and from S'' both S and S' are running slow).
This is the same as the previous question I raised: Who is correct? P, P', P'' or P'''? Nicolaas Vroom |
It should be noted that I'm trying to discuss the situation as it is according to Winn, and showing that that leads to a contradiction.
SR, of course, addresses these scenarios without difficulty.
Sylvia.
> | On Sunday, 30 July 2017 01:30:40 UTC+2, HGW... wrote: |
>> | On 29/07/17 16:10, Sylvia Else wrote: |
>>> | On 29/07/2017 3:48 PM, Robert Winn wrote: |
>> |
>>> |
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] |
> |
I assume there is a third observer P at rest. As such there are three frames S, S' and S'' This is a very tricky example because in each of the frames S, S' and S'' the train, the observer and the ball have the same speed i.e. 0, +v and -v. |
>>> |
Now, you might expect the balls to land on the respective train floors simultaneously. |
> | Yes from the point of view of S. Not from the point of view of S' and S'' |
>>> | Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events. |
> |
Make the example simpler. Forget the falling balls. |
Er, no. Winn tried to show that SR does not preserve physical laws across inertial frames, by using an argument using a falling ball, arguing that the ball falls at a different rate in the other frame. So we need the balls.
I suggested a different version using two balls. Winn made no attempt to address it. What he failed to realise is that the law of gravity does not require the same rate of acceleration to all objects. The thought experiment readily shows that the velocity an object already has enters into the equation. Indeed, this is rather obvious, since if it didn't, an object free-falling in a gravitational field would exceed the speed of light relative to a non-inertial observer in a finite time.
Sylvia.
> | On Tuesday, August 1, 2017 at 4:27:28 PM UTC-6, HGW... wrote: |
> > |
On 01/08/17 20:48, Gary Harnagel wrote: |
> > > |
On Saturday, July 29, 2017 at 5:15:55 PM UTC-6, HGW... wrote: |
> > > > > |
And non-simultaneity has been MEASURED, stupid ignorant etc. |
> > > > |
Please tell us when it was measured, poor etc. |
> > > |
The GPS, stupid ignorant dishonest etc. |
> > |
Oh really! Tell me precisely how GPS measures simultaneity.... |
> |
Lying ignorant corrupt weasel, I said NON-simultaneity. You are such a corrupt piece of work! Time dilation is a consequence of non-simultaneity, and the GPS experience refutes your abysmally-asinine absolute time, thus non-simultaneity is confirmed and DirtyBaThWater is refuted. |
The problem with this discussion it leads to nothing if we, all, do not agree on something.
IMO to decide between simultaneity or non-simultaneity is both as difficult, specific if you don't define first (and agree) what simultaneity means. One of the first step is to agree that there is a difference between that two events are simultaneous versus that I see two events simultaneous. As such it is possible that we can have two events, which are simultaneous but I do not see (observe) them as simultaneous. The reverse is also possible: I observe two events simultaneous but they are not simultaneous.
Starting point is to agree upon that simultaneous events are points in one coordinate system valid at time t. This also implies that all these events happen at the same time. Two points, one in a coordinate system at time t1 and a point in that same coordinate system at time t2 are always non-simultaneous. The issue is now: when I observe an event to calculate the position and time of that event in the agreed upon coordinate system. (*) When I observe two events and the times are the same: they are simultaneous when different: they are non-simultaneous.
(*) The difficult part are the details of such a calculation because if different observations are considered my position with the agreed upon coordinate system can also change. What this boils down to is to calculate the time of the observed events in an unambiguous manner.
If Time dilation has anything to do with this I doubt, specific if no moving clocks are involved.
Nicolaas Vroom
> |
On Wednesday, 2 August 2017 00:51:55 UTC+2, Gary Harnagel wrote: |
> > |
On Tuesday, August 1, 2017 at 4:27:28 PM UTC-6, HGW... wrote: |
> > > |
On 01/08/17 20:48, Gary Harnagel wrote: |
> > > > |
On Saturday, July 29, 2017 at 5:15:55 PM UTC-6, HGW... wrote: |
> > > > > > |
And non-simultaneity has been MEASURED, stupid ignorant etc. |
> > > > > |
Please tell us when it was measured, poor etc. |
> > > > |
The GPS, stupid ignorant dishonest etc. |
> > > |
Oh really! Tell me precisely how GPS measures simultaneity.... |
> > |
Lying ignorant corrupt weasel, I said NON-simultaneity. You are such a corrupt piece of work! Time dilation is a consequence of non-simultaneity, and the GPS experience refutes your abysmally-asinine absolute time, thus non-simultaneity is confirmed and DirtyBaThWater is refuted. |
> |
The problem with this discussion it leads to nothing if we, all, do not agree on something. |
I respectfully disagree. There is truth and there is falsehood, and which is which is NOT a matter of "discussion": it's either one or the other and is independent of one's beliefs.
> | IMO to decide between simultaneity or non-simultaneity is both as difficult, |
No, it's not. All one needs do is ascertain whether clocks stay in sync or not.
> | specific if you don't define first (and agree) what simultaneity means. |
Do you REALLY disagree with what I said?
> | One of the first step is to agree that there is a difference between that two events are simultaneous versus that I see two events simultaneous. |
You are conflating two meanings of the word. That gets you nowhere.
> | [Rambling word salad deleted] |
> | On 2/08/2017 7:47 PM, Nicolaas Vroom wrote: |
> > | On Sunday, 30 July 2017 01:30:40 UTC+2, HGW... wrote: |
> >> | On 29/07/17 16:10, Sylvia Else wrote: |
> >>> | On 29/07/2017 3:48 PM, Robert Winn wrote: |
> >> |
> >>> |
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] Now, you might expect the balls to land on the respective train floors simultaneously. Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events. |
> > |
Make the example simpler. Forget the falling balls. |
> |
Er, no. Winn tried to show that SR does not preserve physical laws across inertial frames, by using an argument using a falling ball, arguing that the ball falls at a different rate in the other frame. So we need the balls. |
When you try to mix SR with GR (gravity becomes involved) you are open for all sorts of problems. When you want to discuss SR you should not introduce falling balls that is tricky when moving observers are involved who drop balls. These balls all have their own speeds.
> | I suggested a different version using two balls. Winn made no attempt to address it. What he failed to realise is that the law of gravity does not require the same rate of acceleration to all objects. |
Also here gravity becomes involved which make things difficult.
> | The thought experiment readily shows that the velocity an object already has enters into the equation. |
You have lost me.
> | Indeed, this is rather obvious, since if it didn't, an object free-falling in a gravitational field would exceed the speed of light relative to a non-inertial observer in a finite time. |
Sorry, you have lost me. What has this to do with the basics of simultaneity?
On Sunday, 30 July 2017 01:30:40 UTC+2, HGW... wrote:
> | Simultaneity has nothing to do with light or what separated people might 'see'. If the two balls were dropped simultaneously by means of a mechanical system, the two events can be assumed to be simultaneous in all frames, even though they wont appear to be because of information's finite travel time. That should be obvious.... |
The problem is there is a difference between if events ARE simultaneous versus if I see events simultaneous. When you want to discuss if events ARE simultaneous you should only consider one coordinate system (as a function of time). HGW... assumes many. In such a coor. system light is not important. The problem starts when you want introduce new observations. To mingle these observations into the coor.system ofcourse the speed of light is important.
Nicolaas Vroom
> | On Wednesday, 2 August 2017 14:04:29 UTC+2, Sylvia Else wrote: |
> > | On 2/08/2017 7:47 PM, Nicolaas Vroom wrote: |
> > > | On Sunday, 30 July 2017 01:30:40 UTC+2, HGW... wrote: |
> > >> | On 29/07/17 16:10, Sylvia Else wrote: |
> > >>> | On 29/07/2017 3:48 PM, Robert Winn wrote: |
> > >> |
> > >>> |
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] Now, you might expect the balls to land on the respective train floors simultaneously. Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events. |
> > > |
Make the example simpler. Forget the falling balls. |
> > |
Er, no. Winn tried to show that SR does not preserve physical laws across inertial frames, by using an argument using a falling ball, arguing that the ball falls at a different rate in the other frame. So we need the balls. |
> |
When you try to mix SR with GR (gravity becomes involved) you are open for all sorts of problems. When you want to discuss SR you should not introduce falling balls that is tricky when moving observers are involved who drop balls. These balls all have their own speeds. |
> > |
I suggested a different version using two balls. Winn made no attempt to address it. What he failed to realise is that the law of gravity does not require the same rate of acceleration to all objects. |
> |
> | On Thursday, August 3, 2017 at 8:40:13 AM UTC-7, Nicolaas Vroom wrote: |
>> | On Wednesday, 2 August 2017 14:04:29 UTC+2, Sylvia Else wrote: |
>>> | On 2/08/2017 7:47 PM, Nicolaas Vroom wrote: |
>>>> | On Sunday, 30 July 2017 01:30:40 UTC+2, HGW... wrote: |
>>>>> | On 29/07/17 16:10, Sylvia Else wrote: |
>>>>>> | On 29/07/2017 3:48 PM, Robert Winn wrote: |
>>>>> |
>>>>>> |
Consider two trains in relative movement. Each has an observer and a ball which is initially held high. When the motion of the trains brings the balls next to each other, the balls are released to fall under gravity[*] Now, you might expect the balls to land on the respective train floors simultaneously. Problem is, that would have to be for each observer, and spatially separated events that are simultaneous in one frame cannot be simultaneous in a frame that has motion in the direction between the events. |
>>>> |
Make the example simpler. Forget the falling balls. |
>>> |
Er, no. Winn tried to show that SR does not preserve physical laws across inertial frames, by using an argument using a falling ball, arguing that the ball falls at a different rate in the other frame. So we need the balls. |
>> |
When you try to mix SR with GR (gravity becomes involved) you are open for all sorts of problems. When you want to discuss SR you should not introduce falling balls that is tricky when moving observers are involved who drop balls. These balls all have their own speeds. |
>>> |
I suggested a different version using two balls. Winn made no attempt to address it. What he failed to realise is that the law of gravity does not require the same rate of acceleration to all objects. |
>> |
> |
Well, it did not need to be addressed. Galileo settled that question a long time ago when he dropped two different lead weights of different sizes from the top of the leaning tower of Piza, and they both hit the ground at the same time. So I guess what you could do if you are a scientist is time the descent of one ball according to a clock on the ground and the other with a clock in a satellite in orbit around the earth. Then you would have the two different rates of acceleration that you seem to find so important. Why scientists do the things they do, I do not understand, but I certainly would defend their right to believe whatever they want to believe. |
Galileo did not do the experiment with two lead weights, one of which had a transverse velocity that was a significant fraction of the speed of light. His experiment related to different masses with no transverse velocity, and his results are limited to that scenario.
You seem to think that gravity is insensitive to transverse velocity. Quite why you think that escapes me, since you have no reason to suppose that it is the case.
As for the clock on the ground and the clock on the satellite, you not only have the transverse velocity issue, but now you really have introduced the issue of whether the observers are inertial, since the free-falling observers on the satellite are inertial, but the ones on the ground are not.
Sylvia.
> |
The problem with this discussion it leads to nothing if we, all, do
not agree on something.
IMO to decide between simultaneity or non-simultaneity is both as difficult, specific if you don't define first (and agree) what simultaneity means. One of the first step is to agree that there is a difference between that two events are simultaneous versus that I see two events simultaneous. As such it is possible that we can have two events, which are simultaneous but I do not see (observe) them as simultaneous. The reverse is also possible: I observe two events simultaneous but they are not simultaneous. |
Can you people not understand that the timing of any two events is not at all related to how or when humans receive information about their occurences.
Synch two adjacent clocks and arrange for them to both emit simultaneous light pulses at regular intervals. Then move them to the ends of a long rod, which is subsequently fired into space.
Different observers throughout the universe would receive the pulses non-simultaneously and by different degrees, depending on their relative speeds. The point is, no matter how anyone receives them, the pulses were emitted simultaneously and if all observers could correct for their travel times and distances, they would all agree that the emission of the pulses was indeed simultaneous....and therefore absolutely simultaneous.
> | Nicolaas Vroom |
--
> | Synch two adjacent clocks and arrange for them to both emit simultaneous light pulses at regular intervals. Then move them to the ends of a long rod, which is subsequently fired into space. |
But that movement to the ends, and the launching into space, certainly can affect the simultaneity of the clocks -- that is an EXPERIMENTAL issue. EXPERIMENTS show that such motions do indeed unsynchronize clocks (and thus change simultaneity for the clocks).
> | The point is, no matter how anyone receives them, the pulses were emitted simultaneously |
You assume what you are trying to prove: you have ASSUMED "absolute simultaneity" throughout.
You REALLY need to learn something about the subject before attempting to write about it. And you also need to learn about basic logic.
Tom Roberts
> | On 04/08/17 23:33, Tom Roberts wrote: |
> > | On 8/3/17 8/3/17 10:47 PM, HGW... wrote: |
> >> | Synch two adjacent clocks and arrange for them to both emit simultaneous light pulses at regular intervals. |
You can have a collection of clocks (together). You can reset them all at the same time, they all show the same time and they run simultaneous together.
> >> | Then move them |
> >> | to the ends of a long rod, which is subsequently fired into space. |
> > |
But that movement to the ends, and the launching into space, certainly can affect the simultaneity of the clocks -- that is an EXPERIMENTAL issue. EXPERIMENTS show that such motions do indeed unsynchronize clocks (and thus change simultaneity for the clocks). |
> |
It is not a fact. You only think it is a fact because dingleberries keep telling each other about all those wonderful experiments they dream about that all end up believing they happen. |
I do not understand what you are saying.
> >> | The point is, no matter how anyone receives them, the pulses were emitted simultaneously |
Before you moved the clocks they run simultaneous. Immediate when you moved them they did not run simultaneous any more.
> > | You assume what you are trying to prove: you have ASSUMED "absolute simultaneity" throughout. |
> |
Two clocks synched while together are absolutely synched. |
> | Moving them apart will not affect them one iota so they must remain in absolute synch. |
> | Clock synchronization is not at all related to light or what humans see. |
Nicolaas Vroom
> | On Saturday, 5 August 2017 00:44:31 UTC+2, HGW... wrote: |
>>> |
But that movement to the ends, and the launching into space, certainly can affect the simultaneity of the clocks -- that is an EXPERIMENTAL issue. EXPERIMENTS show that such motions do indeed unsynchronize clocks (and thus change simultaneity for the clocks). |
>> |
It is not a fact. You only think it is a fact because dingleberries keep telling each other about all those wonderful experiments they dream about that all end up believing they happen. |
> |
I do not understand what you are saying. |
You wouldn't because you are indoctrinated beyond the point of no return.
>>>> | The point is, no matter how anyone receives them, the pulses were emitted simultaneously |
> |
Before you moved the clocks they run simultaneous. Immediate when you moved them they did not run simultaneous any more. |
Silly fellow! Do you really believe hat they are out of synch simply because they now don't measure the speed of the original light to be c? You must be raving mad. What he hell has simultaneity to do with light? Nothing!
>>> | You assume what you are trying to prove: you have ASSUMED "absolute simultaneity" throughout. |
>> |
Two clocks synched while together are absolutely synched. |
> | Two clocks synched are synched. The word absolutely is redundant. |
>> |
Moving them apart will not affect them one iota so they must remain in absolute synch. |
> | I do not think so. |
Nature doesn't care what you think.
>> | Clock synchronization is not at all related to light or what humans see. |
> | I agree what humans observe is not important. But what is important ... |
> |
On 06/08/17 00:22, Nicolaas Vroom wrote: |
> > |
Before you moved the clocks they run simultaneous. Immediate when you moved them they did not run simultaneous any more. |
> |
Silly fellow! Do you really believe hat they are out of synch simply because they now don't measure the speed of the original light to be c? You must be raving mad. What he hell has simultaneity to do with light? Nothing! |
WHY they are out of sync is irrelevant. EXPRIMENT shows that they ARE out of sync.
> | Nature doesn't care what you think. |
Indeed she doesn't. And she doesn't care what YOU think either. She KNOWS, however, that DirtyBaThWater is bull plop.
> | A clock is simply a counter of oscillator periods. A good oscillator DEFINES a time interval and it does not change with movement. |
Good boy! You're beginning to understand, but you have a LONG way to go.
> | On Thursday, August 3, 2017 at 7:44:13 AM UTC-6, Nicolaas Vroom wrote: |
> > |
On Wednesday, 2 August 2017 00:51:55 UTC+2, Gary Harnagel wrote: |
> > > |
On Tuesday, August 1, 2017 at 4:27:28 PM UTC-6, HGW... wrote: |
> > > > |
On 01/08/17 20:48, Gary Harnagel wrote: |
> > > > > | The GPS, etc. |
> > > > |
Oh really! Tell me precisely how GPS measures simultaneity.... |
> > > |
I said NON-simultaneity. Time dilation is a consequence of non-simultaneity, and the GPS experience refutes your absolute time, thus non-simultaneity is confirmed and theory xyz is refuted. |
> > |
The problem with this discussion it leads to nothing if we, all, do not agree on something. |
> |
I respectfully disagree. There is truth and there is falsehood, and which is which is NOT a matter of "discussion": it's either one or the other and is independent of one's beliefs. |
The answer can also be something of both. Anyway we should first agree on
something.
> > | IMO to decide between simultaneity or non-simultaneity is both as difficult, |
> |
No, it's not. All one needs do is ascertain whether clocks stay in sync or not. |
And how do you do that? The first step is to agree what in sync means.
> > | specific if you don't define first (and agree) what simultaneity means. |
> |
Do you REALLY disagree with what I said? |
Where ? In the above quoted text many different concepts are used.
> > | One of the first step is to agree that there is a difference between that two events are simultaneous versus that I see two events simultaneous. |
> |
You are conflating two meanings of the word. That gets you nowhere. |
In the above text I'm using the word simultaneous in two different "settings". There is IMO a difference if I see two flashes simultaneous versus if the... Show trimmed content
> |
On Thursday, 3 August 2017 17:21:15 UTC+2, Gary Harnagel wrote: |
> > |
On Thursday, August 3, 2017 at 7:44:13 AM UTC-6, Nicolaas Vroom wrote: |
> > > |
The problem with this discussion it leads to nothing if we, all, do not agree on something. |
> > |
I respectfully disagree. There is truth and there is falsehood, and which is which is NOT a matter of "discussion": it's either one or the other and is independent of one's beliefs. |
> |
The answer can also be something of both. Anyway we should first agree on something. |
Well, we can try, but if one is not willing to embrace reality, it is hopeless.
> > > | IMO to decide between simultaneity or non-simultaneity is both as difficult, |
> > |
No, it's not. All one needs do is ascertain whether clocks stay in sync or not. |
> |
And how do you do that? The first step is to agree what in sync means. |
This is a well-understood concept in physics:
https://en.wikipedia.org/wiki/Einstein_synchronisation
> > > | specific if you don't define first (and agree) what simultaneity means. |
> > |
Do you REALLY disagree with what I said? |
> |
Where ? In the above quoted text many different concepts are used. |
That non-simultaneity is \experimentally confirmed.
> > > | One of the first step is to agree that there is a difference between that two events are simultaneous versus that I see two events simultaneous. |
> > |
You are conflating two meanings of the word. That gets you nowhere. |
> |
In the above text I'm using the word simultaneous in two different "settings". There is IMO a difference if I see two flashes simultaneous versus if the two flashes are simultaneous. What I see are my personal observations. If the two flashes actual are simultaneous is something else. |
Your personal biases are irrelevant to the physical definition.
> |
What does it mean? Anyway If we all agree what simultaneous means then
we also know what non-simultaneous means.
One easy example to demonstrate the issue is: Position yourself halfway between two mirrors. Flash a light. This flash will propagate towards the mirrors, reach each mirror (two events) and reflect. You will see the two reflections simultaneous. Are the two reflections also simultaneous? Nicolaas Vroom |
This is ho hum stuff. Non-simultaneity means that if they are simultaneous in on frame, they are not in another. This experiment confirms that simultaneity is not universal:
The GPS experience also confirms it:
http://www.phys.lsu.edu/mog/mog9/node9.html
as do many, many time dilation experiments:
http://home.fnal.gov/~pompos/light/light_page18.html
So discussion of what simultaneity "means" is moot not worthy of more time spent.
> | On 06/08/17 00:22, Nicolaas Vroom wrote: |
> > | On Saturday, 5 August 2017 00:44:31 UTC+2, HGW... wrote: |
> |
> >>> |
But that movement to the ends, and the launching into space, certainly can affect the simultaneity of the clocks -- that is an EXPERIMENTAL issue. EXPERIMENTS show that such motions do indeed unsynchronize clocks (and thus change simultaneity for the clocks). |
> >> |
It is not a fact. You only think it is a fact because dingleberries keep telling each other about all those wonderful experiments they dream about that all end up believing they happen. |
> > |
I do not understand what you are saying. |
> |
You wouldn't because you are indoctrinated beyond the point of no return. |
> >>>> |
The point is, no matter how anyone receives them, the pulses were emitted simultaneously |
> > |
Before you moved the clocks they run simultaneous. Immediate when you moved them they did not run simultaneous any more. |
> |
Silly fellow! Do you really believe hat they are out of synch simply because they now don't measure the speed of the original light to be c? You must be raving mad. What he hell has simultaneity to do with light? Nothing! |
> >>> |
You assume what you are trying to prove: you have ASSUMED "absolute simultaneity" throughout. |
> >> |
Two clocks synched while together are absolutely synched. |
> > | Two clocks synched are synched. The word absolutely is redundant. |
> >> |
Moving them apart will not affect them one iota so they must remain in absolute synch. |
> > | I do not think so. |
> |
Nature doesn't care what you think. |
> >> |
Clock synchronization is not at all related to light or what humans see. |
> > | I agree what humans observe is not important. But what is important is the inner workings of clocks, how they function, how they tick. This ticking is causes by reflection of light signals. That means when you move a clock the ticking rate is influenced. |
> |
A clock is simply a counter of oscillator periods. A good oscillator DEFINES a time interval and it does not change with movement. |
You are wrong.......the completion of a cycle of the Cs 133 atom is dependent on the arrival of a specific amount of energy from the aether (the E-matrix) which ,in turn, is dependent on the arrival speed of the incoming energy (light) from the aether (the E-Matrix) which, in turn, is dependent on the absolute motion of the Cs clock in the aether (the E-Matrix). The higher is the absolute motion of the Cs 133 clock the higher amount of absolute time to complete a transition and thus the slower rate is the Cs 133 clock to accumulate clock seconds.
>> | A clock is simply a counter of oscillator periods. A good oscillator DEFINES a time interval and it does not change with movement. |
> |
You are wrong.......the completion of a cycle of the Cs 133 atom is dependent on the arrival of a specific amount of energy from the aether (the E-matrix) which ,in turn, is dependent on the arrival speed of the incoming energy (light) from the aether (the E-Matrix) which, in turn, is dependent on the absolute motion of the Cs clock in the aether (the E-Matrix). The higher is the absolute motion of the Cs 133 clock the higher amount of absolute time to complete a transition and thus the slower rate is the Cs 133 clock to accumulate clock seconds. |
Ken, if you can produce any evidence for an aether, then your theory might have some credibility....but so far, no such evidence has been forthcoming.
Having said that, BaTh does accept that fields might be related to classical aether and regions containing strong fields might indeed affect material objects and the speed of passing EM.
The biggest failure of Physics is its persistent refusal to recognize the fact there is plenty of physics behind the mathematics of fields. We currently have no idea of what fields are made of and until we do, physics will remain in its present state of stagnation.
> | On Saturday, August 5, 2017 at 5:02:39 PM UTC-6, HGW... wrote: |
>> |
On 06/08/17 00:22, Nicolaas Vroom wrote: |
>>> |
Before you moved the clocks they run simultaneous. Immediate when you moved them they did not run simultaneous any more. |
>> |
Silly fellow! Do you really believe hat they are out of synch simply because they now don't measure the speed of the original light to be c? You must be raving mad. What he hell has simultaneity to do with light? Nothing! |
> |
WHY they are out of sync is irrelevant. EXPRIMENT shows that they ARE out of sync. |
Readers note, this poor little twisted fellow really believes the nonsense he writes..... --
> |
On 06/08/17 12:37, Gary Harnagel wrote: |
> > |
On Saturday, August 5, 2017 at 5:02:39 PM UTC-6, HGW... wrote: |
> > > |
Silly fellow! Do you really believe hat they are out of synch simply because they now don't measure the speed of the original light to be c? You must be raving mad. What he hell has simultaneity to do with light? Nothing! |
> > |
WHY they are out of sync is irrelevant. EXPRIMENT shows that they ARE out of sync. |
> |
Readers note, this poor little twisted fellow really believes the nonsense he writes..... |
Who is more twisted, the one who accepts experimental confirmations or the one who denies them and believes his own crackpot idea of DirtyBaThWater?
> |
On 06/08/17 22:28, Gary Harnagel wrote: |
> > |
On Sunday, August 6, 2017 at 4:11:36 AM UTC-6, Nicolaas Vroom wrote: |
> > > | .... |
> > |
This is ho hum stuff. Non-simultaneity means that if they are simultaneous in on frame, they are not in another. This experiment confirms that simultaneity is not universal: https://www.nist.gov/news-events/news/2010/09/nist-pair > aluminum-atomic-clocks-reveal-einsteins-relativity-personal-scale |
> |
This proves that atomic clocks are physically affected by gravity just like everything else. |
Just what does stupid ignorant degenerate Ralphie-boy mean whejn he says "gravity"? Certainly, the ACCELERATION of gravity affects "everything else," but it obviously does NOT affect an atomic clock.
> | A raised pendulum clock will not speed up. It will slow down. That stuffs your theory well and truly.... |
As it turns out, stupid ignorant Ralphie-boy is wrong about that, just as he is wrong about almost everything else. Man, he is one STUPID fool.
ALL physicists know this!
> > | The GPS experience also confirms it: |
> |
GPS says nothing about simultaneity.....GPS functions perfectly well with no interference from Einstein or his insane followers. |
Stupid dishonest Ralphie-boy is wrong again. He is SUCH a liar!
> > | as do many, many time dilation experiments: |
> |
Gawd! That experiment is a fake. Many muons are created ow down. Many are traveling >>c and the coincidence method used rules out the possibility of faster than c as spurious. |
The only "experiment" that's a fake is Ralphie-boy's variable star crap, and that isn't even an experiment.
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