[geocentrism] Re: Steven's points

  • From: "Jack Lewis" <jack.lewis@xxxxxxxxxxxx>
  • To: <geocentrism@xxxxxxxxxxxxx>
  • Date: Thu, 25 Oct 2007 15:20:30 +0100

Dear Paul,
Thank you.

Jack
  ----- Original Message ----- 
  From: Paul Deema 
  To: geocentrism@xxxxxxxxxxxxx 
  Sent: Thursday, October 25, 2007 2:48 PM
  Subject: [geocentrism] Re: Steven's points


  Jack L
  Comments interspersed below in [colour].
  Paul D




  ----- Original Message ----
  From: Jack Lewis <jack.lewis@xxxxxxxxxxxx>
  To: geocentrism@xxxxxxxxxxxxx
  Sent: Thursday, 25 October, 2007 11:29:21 AM
  Subject: [geocentrism] Re: (no subject)

   
  Dear Paul,
  If the earth points to Polaris then its annual traced out volume must be a 
cone with a very tiny angle subtended from Polaris. [This is an approximation 
only. In point of fact, Polaris is not directly in line with the Earth's axis, 
but at this time, describes a circle of about 1 1/2 deg centred on the actual 
Celestial North Pole (the extension of the Earth's axis). There are other 
motions which I do not have at my finger tips but in time it is likely that 
Regner T will cover this matter.] I've no idea where you got your 'cylinder' 
idea from. Is it your own or did you read it somewhere? [I didn't get it from 
anywhere -- it simply exists. Stick a skewer in an apple and maintaining its 
orientation, walk around the circumference of the Earth in a plane orthogonal 
to the skewer. In so doing, the extended skewer will define a cylinder of 
diameter ~12700km. If you instead walk around the Earth's orbit, the cylinder 
will be ~2 AU diameter.]

  You mentioned parallax. Positive Stella parallax is one of the proofs offered 
by helios for their model. Their problem with that is there are nearly as many 
'negative' measurements as positive. This would mean that the so called 
stationary stars [That's nearly all of them. The few that aren't are referred 
to as those possessing 'proper motion'.] , that are used to measure parallax. 
[The parallax of close stars is measured against distant stars, all of which 
are considered 'stationary'. ] cannot be stationary when compared with the 
background stars. So if you shift the goalposts and move the stars further away 
then you won't get any parallax at all! [Most of this sentence doesn't make a 
lot of sense. I think perhaps you don't actually understand what constitutes 
parallax.]

  No moving earth. Voila! [Clearly you have not grasped what I have described 
as you have not addressed the central issue.]

  This idea of using stellar parallax and using only the positive measurements 
and rejecting the negative measurements (very bad science indeed) stems from a 
prior assumption that the earth moves. Circular reasoning. [I don't have a 
handle on this approximately equal number of positive and negative parallaxes 
so I can't add too much here except to note that one explanation (upon which I 
would not place much reliance) could be that the reference star(s) are simply 
not sufficiently distant. However, as you've quoted it, one assumes that you 
understand it better than do I. Perhaps you could enlighten us as to whether 
the measured parallax data correlate well with the distances determined by the 
spectral type/apparent luminosity relationships?]

  Jack
    ----- Original Message ----- 
    From: Paul Deema 
    To: Geocentrism@xxxxxxxxxxxxx 
    Sent: Thursday, October 25, 2007 8:51 AM
    Subject: (no subject)


    re:Steven's points.

    From Steven Jones Thu Oct 25 05:56:41 2007

    Quoting Philip M quoting Steven J ... 4. No observed yearly motion of stars 
around ecliptic N/S-poles ...

    Steven J ... It's true, no observed motion to match this criteria is 
observed ...

    I don't think you responded to my challenge on this matter in my post -

    Supplementary to "...supported by facts?" From Paul Deema Thu Oct 18 
19:59:07 2007

    (In part).

    Let me explain about the Heliocentric position.

    One. The Earth rotates on an axis once per sidereal day with its North Pole 
pointing to Polaris (give or take a degree) and its South Pole pointing to 
Sigma Octantus (give or take a degree) the North and South Celestial Pole stars 
respectively.

    Two. The Earth revolves around the Sun at a distance of one AU (give or 
take a million or two miles). As a consequence, the volume defined by the 
Earth's axis on this annual journey is a cylinder -- not a cone. Because of the 
ratio of one AU to the distance to the stars, the apparent angular change to 
these pole stars is trivial and certainly less than one mas. This in fact is 
the phenomenon of parallax.

    Three. The best way to envisage rotation about the Ecliptic Poles is to 
replace the Earth with a long flat narrow object oriented in the plane of the 
Ecliptic, pivotted at the Sun and with an observation point at the end at one 
AU distance. (This gets rid of the necessity of mentally struggling with the 
Earth's axial inclination to the plane of the Ecliptic which seems to be such a 
problem in the minds of Geocentrists, but if necessary, a mechanism to actually 
resolve this difficulty can be explained). If we mount a camera at this 
observation point and pointing up, it will be pointing at the (for convention) 
North Ecliptic Pole. Now if we start this construct rotating at the same rate 
as the Earth revolves and we open the shutter for a short period once per mean 
solar day (equates to midnight on the Earth) for 365 exposures of the single 
frame, then at the end of one year, we will have a photograph of many stars in 
the form of concentric circles each composed of 365 dots and centred on the 
North Ecliptic Pole. Voila!

    Please -- demonstrate the weakness in my argument.

    Paul D


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