From: Inertial on
"Tony M" wrote in message
news:82a8d94c-94e9-4496-8d3f-9fa338036613(a)x21g2000yqa.googlegroups.com...
>The same goes for the other combinations. If we apply your theory to 3
>observers none will agree with (all) each-other's observations.

Ken's 'theory' is self-contradictory nonsense. But he's an ignorant troll
and won't admit it even when it is so clearly pointed out (some of it can
'work' for 2 bodies, but put in a third and it falls apart).

From: BURT on
On Aug 12, 8:33 pm, "Inertial" <relativ...(a)rest.com> wrote:
> "Tony M"  wrote in message
>
> news:82a8d94c-94e9-4496-8d3f-9fa338036613(a)x21g2000yqa.googlegroups.com...
>
> >The same goes for the other combinations. If we apply your theory to 3
> >observers none will agree with (all) each-other's observations.
>
> Ken's 'theory' is self-contradictory nonsense.  But he's an ignorant troll
> and won't admit it even when it is so clearly pointed out (some of it can
> 'work' for 2 bodies, but put in a third and it falls apart).

Please explain Relativity along with everyone else.

Mitch Raemsch
From: kenseto on
On Aug 12, 11:01 pm, Tony M <marc...(a)gmail.com> wrote:
> On Aug 4, 1:48 pm, kenseto <kens...(a)erinet.com> wrote:
>
>
>
>
>
> > On Aug 4, 11:33 am, Tony M <marc...(a)gmail.com> wrote:
>
> > > On Aug 4, 9:57 am, kenseto <kens...(a)erinet.com> wrote:
>
> > > > So every observer
> > > > does not know if the observed clock is running slow or fast compared
> > > > to his clock. This means that he must include both possibilities when
> > > > predicting the rate of an observed clock as follows:
> > > > Observed clcok runs slow:
> > > > Delta(t')=gamma*Delta(t)
> > > > Observed clock runs fast:
> > > > Delta(t')=Delta(t)/gamma
>
> > > Ken, why not Delta(t)/gamma <= Delta(t') <= gamma*Delta(t)? Think
> > > about it!
>
> > No....Delta(t')=gamma*Delta(t) means that the passage of
> > Delta(t') on the t' clock is equal to the passage of
> > gamma*Delta(t) on the t clock....that means that the t' clock is
> > running slower than the t clock.
> > Similarly...Delta(t')=Delta(t)/gamma means that the passage of
> > Delta(t') on the t' clock is equal to the passage of
> > Delta(t)/gamma on the t clock....that means that the t' clock is
> > running faster than the t clock.
>
> Ken, I believe that's backwards, but let's try the following exercise.

No it is not backward.

>
> Let's use 3 observers, A, B and C, with their time intervals tA, tB
> and tC, all moving with the same relative velocity v, so we have the
> same gamma between each pair of observers. (Yes, that's possible.)

No....this is not possible. Why? Because the passage of an A second
does not correspond to the passage of a B second and the passage of a
C second.
Each observer must make his won determination using his clock second
to determine velocity and the gamma factor. In other words you can't
compare gamma factor between frames.
A would predict B's rate as follows:
T_b=T_a/gamma_ab
OR
T_b=(gamma_ab)T_a

A would predict C's rate as follows:
T_c=T_a/gamma_ac
OR
T_c=Gamma_ac(T_ac)
What this mean is that each observer must use his own clock second to
determine the rate of an observed clock.

>
> From your theory the below observations should all be true:
> Observer A would measure:
> (1) tB=tA*gamma or (2) tB=tA/gamma
> (3) tC=tA*gamma or (4) tC=tA/gamma
> Observer B would measure:
> (5) tC=tB*gamma or (6) tC=tB/gamma
>
> Now, if (1) and (3) are true that means tB=tC, which contradicts both
> (5) and (6); observers A and B would disagree on their observations.
> If we take (1) and (4) as true then tB=tC*gamma^2, which contradicts
> both (5) and (6); observers A and B would disagree on their
> observations.
> The same goes for the other combinations. If we apply your theory to 3
> observers none will agree with (all) each-other's observations. At
> least in SR they agree to disagree.- Hide quoted text -
>
> - Show quoted text -

From: Tony M on
On Aug 13, 9:06 am, kenseto <kens...(a)erinet.com> wrote:
> On Aug 12, 11:01 pm, Tony M <marc...(a)gmail.com> wrote:
>
>
>
>
>
> > On Aug 4, 1:48 pm, kenseto <kens...(a)erinet.com> wrote:
>
> > > On Aug 4, 11:33 am, Tony M <marc...(a)gmail.com> wrote:
>
> > > > On Aug 4, 9:57 am, kenseto <kens...(a)erinet.com> wrote:
>
> > > > > So every observer
> > > > > does not know if the observed clock is running slow or fast compared
> > > > > to his clock. This means that he must include both possibilities when
> > > > > predicting the rate of an observed clock as follows:
> > > > > Observed clcok runs slow:
> > > > > Delta(t')=gamma*Delta(t)
> > > > > Observed clock runs fast:
> > > > > Delta(t')=Delta(t)/gamma
>
> > > > Ken, why not Delta(t)/gamma <= Delta(t') <= gamma*Delta(t)? Think
> > > > about it!
>
> > > No....Delta(t')=gamma*Delta(t) means that the passage of
> > > Delta(t') on the t' clock is equal to the passage of
> > > gamma*Delta(t) on the t clock....that means that the t' clock is
> > > running slower than the t clock.
> > > Similarly...Delta(t')=Delta(t)/gamma means that the passage of
> > > Delta(t') on the t' clock is equal to the passage of
> > > Delta(t)/gamma on the t clock....that means that the t' clock is
> > > running faster than the t clock.
>
> > Ken, I believe that's backwards, but let's try the following exercise.
>
> No it is not backward.
>
>
>
> > Let's use 3 observers, A, B and C, with their time intervals tA, tB
> > and tC, all moving with the same relative velocity v, so we have the
> > same gamma between each pair of observers. (Yes, that's possible.)
>
> No....this is not possible. Why? Because the passage of an A second
> does not correspond to the passage of a B second and the passage of a
> C second.
> Each observer must make his won determination using his clock second
> to determine velocity and the gamma factor. In other words you can't
> compare gamma factor between frames.
> A would predict B's rate as follows:
> T_b=T_a/gamma_ab
> OR
> T_b=(gamma_ab)T_a
>
> A would predict C's rate as follows:
> T_c=T_a/gamma_ac
> OR
> T_c=Gamma_ac(T_ac)
> What this mean is that each observer must use his own clock second to
> determine the rate of an observed clock.
>
>
>
>
>
> > From your theory the below observations should all be true:
> > Observer A would measure:
> > (1) tB=tA*gamma or (2) tB=tA/gamma
> > (3) tC=tA*gamma or (4) tC=tA/gamma
> > Observer B would measure:
> > (5) tC=tB*gamma or (6) tC=tB/gamma
>
> > Now, if (1) and (3) are true that means tB=tC, which contradicts both
> > (5) and (6); observers A and B would disagree on their observations.
> > If we take (1) and (4) as true then tB=tC*gamma^2, which contradicts
> > both (5) and (6); observers A and B would disagree on their
> > observations.
> > The same goes for the other combinations. If we apply your theory to 3
> > observers none will agree with (all) each-other's observations. At
> > least in SR they agree to disagree.- Hide quoted text -
>
> > - Show quoted text -- Hide quoted text -
>
> - Show quoted text -- Hide quoted text -
>
> - Show quoted text -

"Yes, that’s possible." I included that comment in anticipation of
your objection.
Ken, relative velocity is mutual, v_ab=v_ba, regardless of the length
of one’s second. Why? Because velocity is distance/time, and both
distance and time vary by the same factor. If one measures longer time
he also measures longer distance; the ratio stays the same, right?
And yes, you can have 3 observers moving at the same relative
velocity, v_ab=v_ac=v_bc and therefore the same gamma; gamma_ab=
gamma_ac= gamma_bc. Gamma is a function of only the relative velocity.
In fact, in 3 spatial dimensions, you can have 4 observers moving at
the same relative velocity. Try harder!
From: kenseto on
On Aug 13, 12:02 pm, Tony M <marc...(a)gmail.com> wrote:
> On Aug 13, 9:06 am, kenseto <kens...(a)erinet.com> wrote:
>
>
>
>
>
> > On Aug 12, 11:01 pm, Tony M <marc...(a)gmail.com> wrote:
>
> > > On Aug 4, 1:48 pm, kenseto <kens...(a)erinet.com> wrote:
>
> > > > On Aug 4, 11:33 am, Tony M <marc...(a)gmail.com> wrote:
>
> > > > > On Aug 4, 9:57 am, kenseto <kens...(a)erinet.com> wrote:
>
> > > > > > So every observer
> > > > > > does not know if the observed clock is running slow or fast compared
> > > > > > to his clock. This means that he must include both possibilities when
> > > > > > predicting the rate of an observed clock as follows:
> > > > > > Observed clcok runs slow:
> > > > > > Delta(t')=gamma*Delta(t)
> > > > > > Observed clock runs fast:
> > > > > > Delta(t')=Delta(t)/gamma
>
> > > > > Ken, why not Delta(t)/gamma <= Delta(t') <= gamma*Delta(t)? Think
> > > > > about it!
>
> > > > No....Delta(t')=gamma*Delta(t) means that the passage of
> > > > Delta(t') on the t' clock is equal to the passage of
> > > > gamma*Delta(t) on the t clock....that means that the t' clock is
> > > > running slower than the t clock.
> > > > Similarly...Delta(t')=Delta(t)/gamma means that the passage of
> > > > Delta(t') on the t' clock is equal to the passage of
> > > > Delta(t)/gamma on the t clock....that means that the t' clock is
> > > > running faster than the t clock.
>
> > > Ken, I believe that's backwards, but let's try the following exercise..
>
> > No it is not backward.
>
> > > Let's use 3 observers, A, B and C, with their time intervals tA, tB
> > > and tC, all moving with the same relative velocity v, so we have the
> > > same gamma between each pair of observers. (Yes, that's possible.)
>
> > No....this is not possible. Why? Because the passage of an A second
> > does not correspond to the passage of a B second and the passage of a
> > C second.
> > Each observer must make his won determination using his clock second
> > to determine velocity and the gamma factor. In other words you can't
> > compare gamma factor between frames.
> > A would predict B's rate as follows:
> > T_b=T_a/gamma_ab
> > OR
> > T_b=(gamma_ab)T_a
>
> > A would predict C's rate as follows:
> > T_c=T_a/gamma_ac
> > OR
> > T_c=Gamma_ac(T_ac)
> > What this mean is that each observer must use his own clock second to
> > determine the rate of an observed clock.
>
> > > From your theory the below observations should all be true:
> > > Observer A would measure:
> > > (1) tB=tA*gamma or (2) tB=tA/gamma
> > > (3) tC=tA*gamma or (4) tC=tA/gamma
> > > Observer B would measure:
> > > (5) tC=tB*gamma or (6) tC=tB/gamma
>
> > > Now, if (1) and (3) are true that means tB=tC, which contradicts both
> > > (5) and (6); observers A and B would disagree on their observations.
> > > If we take (1) and (4) as true then tB=tC*gamma^2, which contradicts
> > > both (5) and (6); observers A and B would disagree on their
> > > observations.
> > > The same goes for the other combinations. If we apply your theory to 3
> > > observers none will agree with (all) each-other's observations. At
> > > least in SR they agree to disagree.- Hide quoted text -
>
> > > - Show quoted text -- Hide quoted text -
>
> > - Show quoted text -- Hide quoted text -
>
> > - Show quoted text -
>
> "Yes, that’s possible." I included that comment in anticipation of
> your objection.
> Ken, relative velocity is mutual, v_ab=v_ba, regardless of the length
> of one’s second. Why? Because velocity is distance/time, and both
> distance and time vary by the same factor. If one measures longer time
> he also measures longer distance; the ratio stays the same, right?

No....In that case you can't compare Tc as predicted by A with Tc as
predicted by B. Even if you assume that A, B and C measure the same
velocity.... A predicts the following for Tc and Tb:
Tc<Ta OR Tc>Ta
Tb<Ta OR Tb>Ta
This means that you can't assume that Tc=Tb. This means that your
assumed contradiction based on what B predicts for Tc is not valid.
In any case how does your gedanken
support SR? SR predicts from A's point of view:
Tc=Ta/gamma
Tb=Ta/gamma
Therefore Tc=Tb

From B's point of view:
Tc=Tb/gamma

This means that Tc=/=Tb
This means that B's point of view is directly contradicting A's point
of view.

Ken Seto





> And yes, you can have 3 observers moving at the same relative
> velocity, v_ab=v_ac=v_bc and therefore the same gamma; gamma_ab=
> gamma_ac= gamma_bc. Gamma is a function of only the relative velocity.
> In fact, in 3 spatial dimensions, you can have 4 observers moving at
> the same relative velocity. Try harder!- Hide quoted text -
>
> - Show quoted text -